METHOD OF CONTROLLING INSECTS IN PLANTS

Abstract: Patatins control insects, primarily by stunting growth of larvae, thereby preventing maturation and reproduction. Genes encoding for one or more of these proteins may be cloned into vectors for transformation of plant-colonizing microorganisms or plants, thereby providing a method of controlling insect infestation.

Description: METHOD OF CONTROLLING INSECTS FIELD OF THE INVENTION This invention relates to a method of controlling insect infestation of plants by providing a protein which may be applied directly to the plant or produced thereon by microorganisms or by genetically modifying the plant to produce the protein, and to microorganisms and plants useful in that method. BACKGROUND OF THE INVENTION The use of natural products, including proteins, is a well known method of controlling many insect pests. For example, endotoxins of Bacillus thuringiensis (B.t.) are used to control both lepidopteran and coleop- teran insect pests. Genes producing these endotoxins have been introduced into and expressed by various plants, including cotton, tobacco, and tomato. There are, however, several economically important insect pests that are not susceptible to B.t. endotoxins. Examples of such important pests are the boll weevil (BWV), Anthonomus grandis, and corn rootworm (CRW), Diabrotica spp. In addition, having other, different gene products for control of insects which are susceptible to B.t. endotoxins is important, if not vital, for resistance management. Several other known insecticidal proteins are found in plants. These include lectins, amylase inhibitors, and protease inhibitors, which can affect insect growth and development when ingested at high doses [Boulter et al.,1989; Broadway and Duffey, 1986; Czapla and Lang, 1990; Gatehouse et al., 1986; Heusing et al., 1991; Ishimoto and K. Kitamura, 1989; Murdock et al., 1990; Shukle and Murdock, 1983], but do not provide the acute mortality afforded by B.t. proteins. It is an object of the present invention to provide proteins capable of controlling BWV, CRW, or other insect pests, and genes useful in producing such proteins. It is a further object of the present invention to provide genetic constructs for and methods of inserting such genetic material into microorganisms and plant cells. It is another object of the present inven¬ tion to provide transformed microorganisms and plants containing such genetic material . SUMMARY OF THE INVENTION It has been discovered that patatins, the major storage protein of potato tubers, will control various insects, including western corn rootworm (WCRW), Diabrotica virgifera, southern corn rootworm (SCRW), Diabrotica undecimpunctata, and boll weevil (BWV), Anthonomus grandis. Patatins are lethal to some larvae and will stunt the growth of survivors so that maturation is prevented or severely delayed resulting in no reproduction. These proteins, which are known to have esterase (lipid acyl hydrolase) activity, may be applied directly to plants or introduced in other ways such as through the application of plant-colonizing microorganisms, which have been transformed to produce the enzymes, or by the plants themselves after similar transformation. Patatins are a family of proteins found in potato [Gaillaird, 1971; Racusen, 1984; Andrews et al., 1988] and other plants, particularly in solanaceous plants [Ganal et al., 1991; Vancanneyt et al., 1989]. In potato, the patatins are found predominantly in tubers, but also at much lower levels in other plant organs [Hofgen and Willmitzer, 1990]. The esterase substrate specificities of several patatin isozymes have been examined [Hofgen and Willmitzer, 1990; Racusen, 1986] Genes that encode patatins have been previously isolated by Mignery et al., 1984, Mignery et al., 1988, Stiekema et al., 1988, and others. Rosahl et al., 1987, transferred it to tobacco plants, and observed expression of patatin. This demonstrates that the patatin genes can be heterologously expressed by plants. Genes for patatins may be similarly isolated and inserted into appropriate transformation vector cassettes which are then (1) used to transform plant-colonizing microorganisms which when applied to plants express the genes producing a patatin, thereby providing control of insects, or (2) incorporated into the genome of a plant, which then protects itself from attack by insects by expressing the gene and producing a patatin. Additionally, the plant may also be transformed or bred to co-express one or more B.t. genes which code for proteins for the control of insects. This would provide plants that are either (1) protected from a wider range of pests and/or (2) have two modes of action against some pests, which is an important tool in resistance management. Examples of plants transformed to express B.t. genes are disclosed in European Patent Publication No. 0 385 962, which corresponds to U.S. Serial Number 476,661, filed February 12, 1990, [Fischhoff et al.], which is incorporated herein by reference. Additionally, the plant may also be transformed or bred to co-express proteinase inhibitor genes, such as those encoding potato papain inhibitor [Rodis and Hoff, 1984] or soybean trypsin inhibitor [for review see Ryan, 1990] as proteinase inhibitors have been shown to potentiate the activity of other insecticidal proteins. In accomplishing the foregoing, there is provided, in accordance with one aspect of the present invention, a method of controlling insect infes¬ tation of plants comprising providing an effective amount of an insecticidal patatin for ingestion by the insect. This method may be effected by providing plant-colonizing microorganisms which have been transformed to express a gene for a patatin and which are introduced to the plant, express such gene, and provide an insecticidally effective amount of a patatin. This method may also be effected by genetically transforming the plant to be protected with a DNA molecule comprising (i) a promoter which functions in plant cells to cause the production of an RNA sequence; (ii) a structural coding sequence that encodes for a patatin; (iii) a 3' non-translated region which functions in said plant cells to cause the addition of polyadenylate nucleotides to the 3' end of the RNA sequence, wherein said promoter is heterologous with respect to said structural coding sequence and wherein said promoter is operatively linked with said structural coding sequence, which is in turn operably linked with said non- translated region. Preferably the plant will express patatin at a level of about 0.1-0.5% of total protein. Also provided by the present invention are genetically transformed, insect-resistant corn, cotton, tomato and potato plants. As used herein, the term "controlling insect infestation" means reducing the number of insects which cause reduced beneficial yield, either through mortality, retardation of larval development (stunting), or reduced reproductive efficiency. As used herein, the term "insecticidal" means capable of reducing the number of insects which cause reduced beneficial yield, either through mortality, retardation of larval development (stunting), or reduced reproductive efficiency. As used herein, the term "structural coding sequence" means a DNA sequence which encodes for a polypeptide, which may be made by a cell following transcription of the DNA to mRNA, followed by translation to the desired polypeptide. As used herein, the term "patatin" means a plant protein having 75% or more homology to the protein encoded by SEQ ID NO:31, shown below, or more preferably at least 80% homology, or even more preferably at least 85% homology. This term also includes proteins produced from synthetic DNA sequences which have been designed for improved expression in monocots. DETAILED DESCRIPTION OF THE INVENTION Patatins are a family of esterases found in potato [Gaillaird, 1971; Racusen, 1984; Andrews et al., 1988] and other plants, particularly solanaceous plants [Ganal et al., 1991; Vancanneyt et al., 1989]. In potato, the patatins are found predominantly in tubers, but also at very low levels in other plant organs [Hofgen and Willmitzer, 1990]. The esterase substrate specificities of several patatin isozymes have been examined [Hofgen and Willmitzer, 1990; Racusen, 1986] and found to have broad substrate specificity, showing that these enzymes have limited substrate requirements. The use of all plant-derived patatins and their equivalents, both those disclosed in detail herein and homologous proteins, whether derived from natural DNA sequences or synthetic DNA sequences, for the purpose of controlling insect infestation of plants is within the scope of the present invention. Crude patatin preparations from potato are available commercially. For example, Sigma Chemical Company, St. Louis, MO offers potato protein preparations denominated by Sigma as acid phosphatase (P-1146 and P-3752) or apyrase (A-9149). Potato tubers may also be acquired and protein extracts can be prepared by methods described in the literature (Racusen and Foote, 1980; Park et al., 1983). BIOEFFICACY ASSAYS Artificial Diet Bioassavs Assays for activity against larvae of SCRW, BWV, Colorado potato beetle (CPB), Leptinotarsa decemlineata, and European corn borer (ECB), Ostrinia nubilalis, are carried out by overlaying the test sample on an agar diet similar to that described for SCRW by Marrone et al., 1985. Test samples were prepared by solubilization of the protein in 4-5 mL 10 mM HEPES, pH 7.5, followed by dialysis in this same buffer using 3500 molecular weight cutoff tubing. Neonate larvae are allowed to feed on the treated diet at 26 °C and mortality and growth stunting are evaluated at 5 or 6 days. The results of the assays of P-3752 (Sigma) are given in Table 1. This crude potato preparation showed broad spectrum insecticidal activity. Table 1 Rate % Mortalitv/Stuntin a SCRW BWV CPB ECB 0.01X 0 11 0 0 0.03X 0* 20* 0 13 0.10X 19** 20** 6 0* 0.30X g**_*** 1 ^t»* l π * " *P 13* 6* 1.00X g*** Y3*** 13** g** a *=slight stunting (approximately 30-40% size reduction) **=moderate stunting (approximately 50-80% size reduction) ***=severe stunting (>90% size reduction) Precise quantitative measurements of the weights of SCRW (Table 2) after 5 days exposure and ECB (Table 3) after 6 days exposure were made and are presented below. SCRW larvae developing on diet containing P-3752 showed a 92% reduction in weight compared to controls and ECB larvae showed a 62% reduction in weight compared to controls. Table 2 Treatment Mean Surv.Wgt.(SEM) %Wt Rdct %Mortalitv Tris 4.00 mg (0.60)a -control level- P-3752 0.30 mg (0.03)a 92 6 aMean Surv. Wgts. significantly different at 95% (One Factor ANOVA). Table 3 Treatment Mean Surv.Wgt.(SEM) %Wt Rdct %Mortalitv Tris 5.39 mg (0.49)* -control level- P-3752 2.05 mg (0.27)a 62 7 aMean Surv. Wgts. significantly different at 95% (One Factor ANOVA). The proteinaceous nature of the insecticidal component of P-3752 which is active against southern corn rootworm (SCRW) and boll weevil (BWV) was determined by heat lability, ammonium sulfate precipitation, molecular size fractionation, and protease susceptibility experiments. To confirm that the effects of P-3752 are due to direct effects of ingested patatin and not indirect effects due to an antifeedant response, a diet choice study was conducted with ECB and SCRW. Results of this choice study indicated that there was feeding on both P-3752- and Tris- treated diet with no overwhelming preference. There appeared to be no avoidance of P-3752-treated diet in relation to Tris-treated diet. A long term (25 day) assay of P-3752 against SCRW utilized 2nd instar larvae and several transfers of surviving insects onto freshly-treated diet. At the end of the study, all of the control larvae had pupated. In contrast, 50% of the treatment larvae were dead and the other 50% had increased in body weight by only 16% of their initial weight (2.48 mg vs. 2.14 mg). This demonstrates that the larval development is arrested, not just slowed. This has important ramifications from an insect control standpoint as the larvae will not develop to adulthood. Thus the number of rootworms in future generations will be reduced. Larvae of western corn rootworm (WCRW), Diabrotica virgifera, can only be used in laboratory experiments in the 2nd instar larval stage. To test P-3752 against WCRW, a side-by-side assay with 2nd instar SCRW larvae was designed. P-3752 treatment resulted in only 13% and 11% weight gain, respectively, of SCRW and WCRW 2nd instar larvae. Control SCRW increased in weight by 474% and WCRW grew 200% in 7 days. This suggests that patatin activity against WCRW is roughly equivalent to its activity against SCRW. P-3752 was slightly active against tobacco budworm (TBW), Heliothis υirescens, beet armyworm (BAW), Spodoptera exigua, corn earworm, Helicoυerpa zea, pink boll worm, Pectinop-hora gossypiella, and tobacco hornworm, Manduca sexta, with stunting ratings of 1 to 1.5 at the same concentration at which a stunting rating of 3 is demonstrated for SCRW. P-3752 gave a stunting rating of 2.5 for black cutworm, Agrotis ipsilon. (The stunting ratings are defined above in Table 1.) It was inactive against green peach aphid, Myzus persicae, at the concentration tested. Plant Tissue Bioassays (1) Potato: One g of crude P-3752 was dissolved in 4 mL 25 mM Tris, pH 7.5 buffer, then dialyzed and filtered through a 0.2 μm membrane. Triton® X-100 was added to generate a 0.1% solution. Potato leaves were dipped into the enzyme preparation and placed on moistened filter paper in petri dishes. CPB larvae were added and the plates were incubated at 27 °C for 3 days. P-3752 treatment of potato leaves resulted in stunting and reduced feeding of CPB larvae. At the conclusion of the assay, significantly less leaf tissue remained on control leaves compared to P-3752-treated leaves. (2) Corn and cotton: Black Mexican sweet corn callus (BMS) or cotton callus was removed from agar plates and transferred into 50 mL centrifuge tubes. Callus was vortexed and centrifuged in an IEC Clinical centrifuge for 5 min. at setting 8. The supernatant was decanted. To a 50 mL tube containing 15 mL of callus pellet was added 30 mL of liquid 2% agar. Following thorough mixing, the diet was pipetted into an assay arena for insect bioassay. Dialyzed P-3752 was added as a diet overlay (at 20% volume) and the assay was carried out as described above. Excised corn roots and shoots were vacuum-infiltrated (Inflt.) with crude P-3752 or 25 mM Tris, pH 7.5 buffer. The control sample was tissue submersed in Tris buffer. Approximately 10-15 pieces of root or 3 pieces of shoot tissue were placed in wells of a 24- well tissue culture plate and replicated 4 times. Four neonate SCRW larvae were added to each well. The assay was incubated at 26 °C for 4 days, at which time observations were made with respect to mortality and average larval weight. The results of these assays are shown in Table 4. Table 4 Tissue Insect % Mortality %Wt.Reduction Inflt corn roots SCRW 90 44 Inflt corn shoots SCRW 51 52 Trtd BMS callus SCRW 24 51 Trtd BMS callus WCRW 0 23 Trtd BMS callus ECB 0 33 Trtd cotton callus BWV 60 no data Thus, insecticidal activity on all four insects (SCRW, BWV, CPB, and ECB) is retained when P-3752 is co-ingested with plant tissue. These diet studies demonstrate that the patatins are insecticidally active when assayed in diets whose nutrients are comprised solely of plant tissue (roots, shoots, callus or leaves). MODE OF ACTION STUDD3S The following studies suggest that patatin, the insecticidally active component of P-3752, has a direct effect on the insect itself and that the activity demonstrated in, the experiments described above cannot be attributed to the active component's effect(s) on the insect's diet prior to ingestion. Diet Effect Study One gram of P-3752 was dissolved in 10 mL of 25 mM Tris, pH 7.6 buffer, then dialyzed in MWCO 12-14,000 tubing against this same buffer. Following 0.2 μm filtration, 50 μL aliquots were added to insect diet wells on two plates four days prior to insect addition. Both plates were incubated at 27 °C for four days. Following incubation, one plate was heated to 80 °C for 1 hour to inactivate the enzyme(s). Fifty μL aliquots were added to a third plate. Thus, incubated, incubated + heat, and unincubated plates were utilized for SCRW bioassay. SCRW activity in the diet pre-incubation study was as follows: unincubated P-3752 - 6*** incubated P-3752 - 0** incubated, heated P-3752 - 0 While some of the activity was lost during the diet incubation, a complete loss of activity resulted from heat treatment. This data is consistent with a direct, post-ingestion mode-of-action, and when considered in conjunction with the plant tissue assays and the variability against different insects indicates that the activity of the protein on SCRW and other insects is not via a dietary effect. PROTEIN IDENTIFICATION The insecticidally active component from P-3752 has been purified, partially sequenced, and characterized. The active agent(s) has been identified as patatin, a family of lipid acyl hydrolases from potato. Protein Isolation Four distinct protocols were used to purify the SCRW bioactive component from P-3752. Purification of SCRW activity bv anion exchange chromatographv - The SCRW-active component from P-3752 was purified by Q-Sepharose (Pharmacia) anion exchange chromatography followed by MONO-Q (HR 5/5, Pharmacia) anion exchange chromatography. The protein levels in SCRW-active fractions indicated that the observed ** stunting was achieved with a protein concentration of 31 ppm of diet. SDS-PAGE indicated that three major protein bands (M r 42,000, -26,000 and -16,000) were present in the active fractions. Five step purification of SCRW activity - Five sequential purification steps were used to purify the SCRW-active component from P- 3752. These were membrane sizing, ammonium sulfate precipitation, Q- Sepharose IEC, S-Sepharose IEC, and P-200 SEC. SDS-PAGE of the purest SCRW-active fractions showed protein bands at M r 42,000, -26,000, and -16,000. Purification of bioactivitv by isoelectric focusing - The SCRW- bioactive potato proteins were purified by two sequential runs on the RF3 protein fractionator (Rainin) according to the manufacturer's instructions. The SDS-PAGE profile of the SCRW-active fractions was very similar to the profile observed in active fractions from the 5-step purification and the anion exchange purification. The IEF gel showed that the proteins fractionate from pH 4.6 to 5.1, consistent with the reported pi range for patatin (Racusen and Foote, 1980). Consecutive isoelectric focusings on the RF3 over a narrow pH range (pH 4-5) were used to attempt to resolve the patatin isozymes. As expected, a peak of bioactivity was seen with proteins of pis 4.6-5.1. These fractions have distinct isozyme patterns and different levels of bioactivity. Bioactivity in the fractions ranged from 0 mortality with *-** stunting at doses of 80-512 ppm. Some of the bioactive fractions have only 2 major isozymes, demonstrating that a complex pattern of isozymes is not required for bioactivity. Purification bv Native PAGE - P-3752 was electrophoresed under native conditions and an esterase-active (using α-naphthyl acetate as substrate) triplet of bands was isolated. The gel-purified esterase-positive material was active against SCRW yielding 1.5* stunting. SDS-PAGE of this material revealed major bands at M r 42,000, -26,000 and -16,000, a profile previously observed with the other purifications. This is further confirmation that patatin is the insecticidal component from potato. Amino Acid Sequences NH 2 -teπninal amino acid sequence was obtained on all the protein bands (M r 42,000, -26,000 and -16,000) in the SCRW-active chromatography fraction from the anion exchange purification and the five step purification. Overall, sequence data were generated for all bands in the active fractions. Most of the bands showed >85% homology with a 15- amino acid sequence at either the NH 2 -terminus (SEQ ID NO:l) or an internal sequence (SEQ ID NO:7) of an isozyme of patatin (Stiekema et al., 1988). One of the 17 kD bands showed 75% homology with the initial eight amino acids of the published NH 2 -terminus sequence of patatin. The other 17 kD band showed >85% homology with the initial eight amino acids of the pubKshed internal sequence. These bands represent proteolyzed products of patatin. The presence of isozymes is clearly indicated by variability in amino acids at positions 1 and 3 for both NH 2 -terminus and internal sequences. N-terminal Amino Acid Sequence Pub.Seq.: KLEEM VTVLS ID GGG (SEQIDNO:!) Band 1 (42 kD) X G EMVTVLSIDGGG (SEQ ID NO:2) Band 2 (28 kD) T G EMVTVLSIDGGG (SEQ ID NO:3) Band 3 (26 kD) T G EMVTVLSIDGGG (SEQ ID NO:4) Band 4 (24 kD) K XE VTVLSIPGGG (SEQIDNO:5) Band 5a (17 kD): X X E EMVTV (SEQ ID NO:6) Internal Sequence (amino acid position 224) Pub. Seq.: S L D YKQMLLLSLGTG (SEQ ID NO:7) Band 5b (17 kD): KLDYKQML (SEQIDNO:8) Band 6 (16 kD): £J YKQMLLLSLGTG (SEQ ID NO:9) Band 7 (15 kD): ≤i N YKQMLLLSLGTG (SEQ ID NO: 10) Esterase Activity Several experiments were run to examine the esterase activity in the SCRW-active fractions. α-naphthylacetate substrate: SDS-PAGE (10-20%) was utilized to determine if SCRW-active fractions (from the 5-step purification) exhibited esterase activity [Racusen, 1984]. On two halves of the gel, sets of heated and non-heated SCRW-active fractions were loaded. A single esterase- positive band was observed in the non-heated sample, with an M r of 55,000. The heated sample revealed the original M r 42,000 band and a concomitant absence of a 55,000 band. This result is consistent with the literature reports of the electrophoretic mobility of patatin's esterase activity (Racusen, 1984). The M r 55,000 band was not observed in the heated sample, which indicates that the heat treatment in SDS eliminates the esterase activity. In the absence of the M r 55,000 band in the heated sample, the originally observed M r 42,000 band was observed with coomassie staining. p-Nitrophenyl substrate specificity studies - A series ofp- nitrophenyl esters (C-2, C-4, C-6, C-8, C-10, C-12, C-14, and C-16 esters) was tested to determine the substrate specificity. p-NP C-8 and C-10 esters were consistently the best substrates for the esterase activity of most of the patatins tested, relative to the other esters. Lipid ester substrates - A SCRW-active purified fraction (from 5- step purification) was tested for the abihty to hydrolyze several Upids Each Upid was dissolved and incubated with an ahquot of a SCRW-active purified fraction. Samples were analyzed by TLC utiUzing a three solvent development system (Pernes et al., 1980). Four Upids showed marked modifications by TLC. These included oleoyl lysolecithin, dioleoyl L-α- phosphatidylcholine, 1-monoUnolenoyl-rac-glycerol, and diolein (Sigma). A new TLC spot at R f 0.37 in the organic extract of these Upid/active fraction reaction mixtures was identified as free fatty acid by comparison with Unoleic and oleic fatty acid standards. Thus, SCRW-active material shows esterase activity on these four Upid esters. WCRW midguts were removed from third instar larvae feeding on corn roots. Midgut Upids were extracted, dissolved and incubated at the pH of the midgut (pH 6.55) with the SCRW-active purified fraction. Samples were analyzed by TLC utilizing the above method. The purified SCRW- active fraction demonstrated esterase activity on WCRW midgut phosphoUpids at the pH of the midgut. This illustrates a possible mode-of- action for the insecticidal activity of patatin. Alternate Sources of Patatin Because all initial experiments were carried out with P-3752, a commercially available enzyme preparation (Sigma) from Minnesota Russet var. Kranz potato tubers, it was desirable to demonstrate that insecticidally active patatins could be recovered from fresh potato tuber tissue. Tuber extracts were prepared essentially as described in the literature (Racusen and Foote, 1980; Park et al., 1983). Three commercially available S. tuberosum cultivars (Russet, Desiree, and LaChipper) and seven wild type species (S. kurtzianum, S. berthaultii, S. tarijense, S. acaule, S. demissum, S. cardiophyllum, and S. raphani folium, all available from the Inter-Regional Potato Introduction Station, USDA, ARS, Sturgeon Bay, WI) were analyzed. All extracts were positive for patatin by SDS-PAGE and Western blot assays; all were esterase positive by C-10 esterase assay; and all were insecticidally active against SCRW, i.e., had stunting ratings of 2-3. See Table 5. This demonstrates that insecticidally active patatins can be isolated from the tubers of several species and that many members of this entire class of proteins would be expected to have insecticidal properties. Table 5 Species rProtl Δ0.D./min«mL SCRW a (mg/mL) IX 0.1X S. acaule 26.6 82,500 2 1 S. berthaultii 23.1 29 3 1 S. cardiophyllum 14.6 89 2.5 1.5 S. demissum 35.3 375,000 3 1.5 S. kurtzianum 25.0 2,700 2.5 1 S. raphanifolium 33.7 3,725 3 2 S. tarijense 27.2 1008 2.5 1 a SCRW activity is expressed in terms of larval stunting: 1 = slight stunting (30-40% size reduction), 2 = moderate stunting (50-80% size reduction), 3 = severe stunting (>90% size reduction). Extracts of S. berthaultii, S. kurtzianum, and S. tarijense were bioassayed against two additional target insects, CPB and ECB. Bioassay data is summarized below in Table 6. Very little activity was noted with these extracts against CPB whereas the ECB larvae were moderately to severely stunted at the IX rate. However, the ECB larvae appear to be slightly less sensitive to these potato extracts than the SCRW larvae, as indicated by a complete absence of activity at 0.1X against ECB. Table 6 Species CPBa ECB a IX 0.1X IX 0.1X S. berthaultii 0 0 3 0 5. kurtzianum 1 0 2.5 0 S. tarijense 0 0 3 0 a Larval stunting Genomic DNA from nine different plants was tested by Southern analysis for proteins homologous to patatin. Southern blots probed with a α-32P-labelled probe of SEQ ID NO:ll indicated that there are homologous sequences in several other plant species. Strong signals were obtained in corn, tomato, sugar beet, rice, and potato. Individual bands were unable to be resolved in this experiment; however, the size of the smears and their intensities were similar in all of these species. Weaker signals were also seen in zucchini, soybean, and canola, and appeared as a small number of discreet bands in the DNA from each species. Cucumber and Arabidopsis did not exhibit detectable hybridization with the patatin probe under the conditions used in this experiment, perhaps due to the smaller amount of DNA loaded as seen in the ethidium bromide stain of the gel. The DNA sequences for these homologous proteins can be readily obtained by one of ordinary skill in the art and inserted into plants or other organisms by known means. The insecticidal properties of such proteins can be best tested after heterologous expression, for example, from baculovirus or E. coli. Thus, other proteins which can be used in the methods of the present invention may be obtained with a normal amount of experimentation using known methods and thereafter used to provide plants with protection from insect infestation. GENETIC IDENTIFICATION Genes for patatins have been cloned by several investigators. The sequence disclosed by Mignery et al., 1984, was referred to as GM203. It has an incomplete signal sequence. Mignery et al., 1988, identified a genomic clone, designated PS20, encompassing GM203 and containing a complete signal sequence. SEQ ID NO: 11 was constructed with the signal sequence of PS20 and the cDNA coding portion of GM203, hereinafter referred to as PatA+. It also contains an Ncol restriction site and an EcoRI site immediately following the translation termination codon. Solanum tuberosum cv. Russet Burbank Twenty cDNAs were isolated from the tubers of potato cultivar Russet Burbank and sequenced. The deduced amino acid sequences show that these cDNAs encode eleven different patatin isozymes. These eleven proteins are from about 82% to 100% identical as compared to PatA+, SEQ ID NO:ll, with differences occurring at numerous positions throughout the length of the cDN A. The sequences for eleven different representative cDNAs encoding the eleven different patatin isozymes are denominated as shown in Table 7. The cDNAs were engineered by PCR procedures using primers SEQ ID NO:26 and SEQ ID NO:27, corresponding to the 5' nucleotides encoding the first few codons of the signal sequence and the 3' end of the coding sequence, respectively, for later cloning manipulations. A "+" symbol indicates that the native signal coding sequence is included. Some cDNAs did not contain the complete native signal coding sequence and only the mature protein coding sequence was obtained from a similar PCR procedure using primers SEQ ID NO:32 and SEQ ID NO:27. These are so designated with the subscript "m." Table 7 Isozvme Sequence TD Number PatA+ SEQ ID NO:ll PatA m SEQ ID NO:14 PatB+ SEQ ID NO:16 PatC+ SEQ ID NO:17 PatD m SEQ ID NO:18 PatE+ SEQ ID NO:19 PatE m SEQ ID NO:20 PatF m SEQ ID NO:21 PatG+ SEQ ID NO:22 PatH m SEQ ID NO:15 Patl m SEQ ID NO:23 PatL+ SEQ ID NO:24 PatM+ SEQ ID NO:25 Solanum berthaultii Patatin cDNAs from the diploid potato S. berthaultii were isolated by reverse transcription of tuber mRNA followed by PCR with primers SEQ ID NO:26 and SEQ ID NO:27, described above. Multiple independent PCR reactions were performed to avoid the isolation of duplicate clones due to the amplification process. A total of 14 patatin cDNAs were partially sequenced. All fourteen cDNAs (denominated Patl through Patl4) appear to have a unique nucleotide sequence, suggesting that at least 14 different patatin mRNAs are expressed in S. berthaultii tubers. The sequence for Pat3+ is SEQ ID NO:28. The sequence for Patl0+ is SEQ ID NO:29. The deduced amino acid sequence shows that the 14 cDNAs encode at least 11 different proteins. In general, the cDNA sequences from the S. berthaultii tubers were very similar. Only 12 amino acid positions of the total 367 residues (3%) showed sequence variabiUty. The amino acid residues present in each of those positions is shown in Table 8. At five of these positions, there was only a single variant clone with a unique residue. These changes could reflect actual differences between mRNAs or could have resulted from errors made during the PCR process. At the other seven positions, there was more variability; at least two cDNAs had an alternate amino acid. Each of the nine different amino acid sequence groups had a unique pattern of residues at these seven positions. In some cases, the changes were conservative such as the Thr to Ser change at position 164. In other cases, there were more dramatic differences such as introduction of a proline at position 148. TABLE 8 c-ONlA Position of Amino Acid Difference .89 96 106 113 120 123 148 164 187 200 PAT3+ GIN LEU GLN TYR GLU VAL ALA ALA THR ASP ASP PAT4+ GLN SER ASP HIS GLU VAL ALA PRO SER ASP VAL PAT5+ GLN SER ASP HIS GLU VAL ALA PRO THR ASP ASP PAT7+ GLN LEU GLΝ TYR GLU VAL ALA ALA THR AS ASP PAT8+ LYS SER GLY TYR LYS VAL ALA PRO THR ASP ASP PAT9+ LYS SER ASP TYR LYS VAL ALA PRO THR ASP ASP PAT10+ GLN SER ASP HIS GLU VAL THR PRO THR ASP ASP PAT11+ GL-Ν SER ASP HIS GLU ALA ALA ALA THR ASP ASP PAT12+ GLN SER GLY HIS GLU VAL ALA ALA THR ASP ASP PATA+ HIS SER TYR GLU VAL ALA ALA THR GLU ASP Solanum cardiophyllum Ten cDΝA clones were generated via PCR utilizing mRΝA isolated from Solanum cardiophyllum tubers as described above. Nucleotide sequence was obtained on at least 75% of the length of each clone. The full length sequence of one clone denominated Patl7+ is SEQ ID NO:30. SEQ ID NO:31 is the engineered mature form, Patl7 m . The S. cardiophyllum clones were almost identical, with only random nucleotide sequence changes that could be actual differences or PCR errors. However at positions 54 and 519, several clones were observed to have identical changes, suggesting that they are not due to the ampUfication process. The patterns of nucleotides at these positions indicated that there are at least 4 different mRNAs represented. mRNAs from two of the groups were isolated several times and mRNA from the other two groups were only isolated once in this set of cDNA clones. The deduced amino acid sequences of the S. cardiophyllum clones were also extremely similar. There were 8 unique amino acid sequence groups, each differing from the other sequences by a single residue. cDNA clones encoding an amino acid sequence identical to the Patl7+ sequence were recovered twice and the other seven cDNAs (Pat 18+, 19+, 20+, 21+, 22+, 23+, and 24+) contained a single unique residue. GENETIC TRANSFORMATION As discussed above, patatin genes can be isolated from various plant sources. One or more of these genes may then be used to transform bacterial cells or plant cells to enable the production of patatin and carry out the methods of this invention. Examples of how this may be done with various sequences for patatin are given below. Engineering of the Patatin cDNAs In order to incorporate a patatin gene into vectors appropriate for expression of patatin in heterologous host cells, it was necessary to intro¬ duce appropriate restriction sites near the ends of the gene. The goals of this mutagenesis were to create cassettes that included the protein coding sequence with minimal noncoding flanking sequences and to incorporate use¬ ful restriction sites to mobilize these cassettes. Cassettes were designed that would allow mobiUzation of the intact coding sequence including the signal peptide or just the mature coding sequence. For PatA m , two muta¬ genesis primers were designed to create these cassettes. Mutagenesis with SEQ ID NO: 12 substituted two amino acids (methionine-alanine) for lysine at the N-terminus of the mature protein and introduced an Ncol site, and SEQ ID NO: 13 added a second termination codon and an EcoRI site. The resulting modified sequence was identified as PatA mj SEQ ID NO: 14. For all other cDNAs, similar modifications and introduction of restriction sites were done using PCR and either primers SEQ ID NO:26 and SEQ ID NO:27 or primers SEQ ID NO:32 and SEQ ID NO:27, as described previously. Expression of Patatins m E. coli The DNA coding sequence for PatA m (SEQ ID NO:14) was inserted into pMON5766, an E. coli expression vector derived from pBR327 (Soberon et al., 1980) with a recA promoter and a G10 leader (Olins et al., 1989). The resulting vector, pMON19714, was mobiUzed into E. coli strain JMlOl, which subsequently produced PatA m as confirmed by Western blot analysis and esterase activity using p-nitrophenyl C-10 ester. The DNA coding sequence for Patl7 m as well as that for PatA m were each inserted into an E. coli expression vector derived from pMON6235 with the AraBAD promoter (inducible when cells are grown in arabinose), a G10 leader, and an ampicilUn resistance marker gene. The resulting vectors, pMON25213, containing Patl7 m , and pMON25216, containing PatA m , were introduced into E. coli strain JMlOl. Patatin is expressed by the transformed E. coli; however, it is compartmentalized in refractile bodies (RBs). Intact cells and solubiUzed RBs were used in SCRW assays. The results are shown in Table 9. Table 9 Sample ; R Reepp I Innttaacctt cceellllss SolubiUzed RBs (pMON )) S SCCRRWW aaccttiivviittyvi SCRW activitvi 19714 A \ mm 1 1 2 2..55 nt 2 2 1 1..55 1.0 25216 A ^m m 1 1 1 1..00 0 2 2 0 0 1.0 25213 1 L77 mm 1 1 3 3..00 3.02 2 2 1 1..55 0.5 i SCRW activity is expressed in terms of larval stunting: l=slight stunting (30-40% size reduction), 2=moderate stunting (50-80% size reduction), 3=severe stunting (>90% size reduction). 2 Mortality rate with this sample was 81%. Expression of Patatins in Plant-Colonizing Bacteria To control insects, it may be desirable to express one or more patatins in a plant-colonizing bacterium, and then apply this bacterium to the plant. As the insect feeds on the plant, it ingests a toxic dose of patatin produced by the plant colonizers. Plant-colonizers can be either those that inhabit the plant surface, such as Pseudomonas or Agrobacterium species, or endophytes that inhabit the plant vasculature such as Clavibacter species. For surface colonizers, the patatin gene may be inserted into a broad host range vector capable of replicating in these Gram-negative hosts. Examples of such vectors are pKT231 of the IncQ incompatibility group [Bagdasarian et al., 1981] or pVKlOO of the IncP group [Knauf, 1982]. For endophytes the patatin gene can be inserted into the chromosome by homologous recombination or by incorporation of the gene onto an appropriate transposon capable of chromosomal insertion in these endophytic bacteria. Expression of Patatins in Baculovirus Patatin genes were cloned into the baculovirus donor vector pMON14327, described in co-pending U.S. Serial Number 07/941,363, filed September 4, 1992, which is hereby incorporated by reference, as Ncol/ EcoRI fragments. Donor vector pMON14327 contains an ampicillin resistance gene, the left and right arms of the Tn7 transposon, and, between these arms, a gentamicin resistance gene, the strong baculovirus polyhedrin promoter and a polyUnker. The baculovirus shuttle vector or bacmid is composed of a mini-attTn7 site in frame within the lacZ gene and a kanamycin resistance gene recombined into the AcNPV viral genome. With the help of a tetracycline-resistant helper plasmid, pMON7124, recombinant AcNPV virus were produced by transposition of the patatin or GUS genes and marker genes into the viral genome (Luckow et al., 1993). The following genes were inserted into pMON14327: the genes listed in Table 7 along with Pat3+, Patl0+, and Patl7+. Following the procedures of U.S. Serial Number 07/941,363 and Luckow et al., quantities of patatin from the above genes were produced. The presence of patatin was confirmed by Western blot analysis and esterase activity with p-nitrophenyl C-10 ester. With the exception of Pat A m , each isozyme was scaled-up at least twice for SCRW bioassay. While Pat E+ and PatE m fermentations consistently showed little or no patatin expression, all other isozymes appeared to be expressed at acceptable levels for bioassay. However, the nature of the post-translational processing of the patatin proteins in baculovirus compared to potato was not determined. Bioactivity of the isozymes as expressed by baculovirus, against SCRW, was observed with Pat 17+, PatB+, PatD m , Patl m , PatL+, and Pat3+. The effects of multiple isozymes (produced by baculovirus) on insects' growth and development was determined. AUquots of the eleven Russet isozymes were combined into one sample for bioassay against SCRW, ECB, black cutworm, and TBW. Ten to fifteen mg of each Q-Seph- arose-purified isozyme was combined except for PatD m , of which only 1.7 mg was available. This mixture resulted in 100% mortality in TBW assays and 93% weight reduction against ECB. Thus, each isozyme was assayed separately against TBW and ECB. Compared to the vector control larvae, TBW and ECB larvae feeding on diet treated with isozymes PatC+, PatL+, and Patl m showed significant stunting (>75%) and/or mortaUty. Pat B+ and PatD m also stunted TBW by 69 and 78%, respectively. Plant Gene Construction The expression of a plant gene which exists in double-stranded DNA form involves transcription of messenger RNA (mRNA) from one strand of the DNA by RNA polymerase enzyme, and the subsequent processing of the mRNA primary transcript inside the nucleus. This processing involves a 3' non-translated region which adds polyadenylate nucleotides to the 3' end of the RNA. Transcription of DNA into mRNA is regulated by a region of DNA usually referred to as the "promoter." The promoter region contains a sequence of bases that signals RNA polymerase to associate with the DNA and to initiate the transcription of mRNA using one of the DNA strands as a template to make a corresponding strand of RNA. A number of promoters which are active in plant cells have been described in the Uterature. Such promoters may be obtained from plants or plant viruses and include, but are not Umited to, the nopaline synthase (NOS) and octopine synthase (OCS) promoters (which are carried on tumor-inducing plasmids of Agrobacterium tumefaciens), the cauliflower mosaic virus (CaMV) 19S and 35S promoters, the light-inducible promoter from the small subunit of ribulose 1,5-bis-phosphate carboxylase (ssRUBISCO, a very abundant plant polypeptide), and the Figwort Mosaic Virus (FMV) 35S promoter. All of these promoters have been used to create various types of DNA constructs which have been expressed in plants (see e.g., PCT pubUcation WO 84/02913). One may also want to limit expression to certain plant parts which are susceptible to insect attack. For example, a root-specific promoter may be used to limit expression to the root or a root-enhanced promoter may be used to increase levels of active protein in the roots. This is preferred for plants susceptible to root-eating insects. Certain plant promoters are also more effective in monocots. For example, the rice actin promoter described in WO 91/09948 is efficacious for expression in corn. The maize ubiquitin promoter, described in EP 0 342 926, may also be used in monocots. The promoters used in the DNA constructs (i.e. chimeric plant genes) of the present invention may be modified, if desired, to affect their control characteristics. For example, the CaMV35S promoter may be ligated to the portion of the ssRUBISCO gene that represses the expres¬ sion of ssRUBISCO in the absence of light, to create a promoter which is active in leaves but not in roots. The resulting chimeric promoter may be used as described herein. For purposes of this description, the phrase "CaMV35S" promoter thus includes variations of CaMV35S promoter, e.g., promoters derived by means of Ugation with operator regions, random or controlled mutagenesis, etc. Furthermore, the promoters may be altered to contain multiple "enhancer sequences" to assist in elevating gene expression. Examples of such enhancer sequences have been reported by Kay et al. (1987). The particular promoter selected should be capable of causing sufficient expression of the enzyme coding sequence to result in the production of an effective amount of patatin. A preferred promoter is the CaMV E35S promoter (enhanced CaMV35S). The RNA produced by a DNA construct of the present invention also contains a 5' non-translated leader sequence. This sequence can be derived from the promoter selected to express the gene, and can be specifi¬ cally modified so as to increase translation of the mRNA. The 5' non-trans¬ lated regions can also be obtained from viral RNA's, from suitable eukary- otic genes, or from a synthetic gene sequence. The present invention is not Umited to constructs wherein the non-translated region is derived from the 5' non-translated sequence that accompanies the promoter sequence. As noted above, the 3' non-translated region of the chimeric plant genes of the present invention contains a polyadenylation signal which functions in plants to cause the addition of adenylate nucleotides to the 3' end of the RNA. Examples of preferred 3' regions are (1) the 3' transcribed, non-translated regions containing the polyadenylate signal of Agrobacterium tumor-inducing (Ti) plasmid genes, such as the nopaline synthase (NOS) gene and (2) plant genes Uke the soybean 7s storage protein genes and the pea ssRUBISCO E9 gene. [Fischhoff et al.] Localization Vectors containing the patatin cassettes described above express the active protein in the cytoplasm or vacuoles of the plant cell. It may be desirable to direct most or all of the patatin into the plant secretory pathway. To achieve this, it may be advantageous to use a signal sequence derived from a bacterial or plant gene, but a plant gene is expected to be preferred. Examples of such signal sequences are those from the endoproteinase B gene (Koehler and Ho) and the tobacco PR lb gene (Cornelissen et al.). pMON10824, disclosed in EP Publ. 0 385 962, is a plant transformation vector designed for the expression of the lepidopteran active B.t. kurstaki protein. In pMON10824, the B.t.k. coding sequence is fused to the PRlb signal sequence plus 10 amino acids of the mature PRlb coding sequence. To create a vector in which the PRlb signal is fused to the patatin gene, pMON10824 is cut with Bglll and Ncol and the small Bglll-Ncol fragment that contains the PRlb signal is isolated. In a ligation reaction, the small Bglll-Ncol pMON10824 fragment is mixed with the 1.0 kb NcoI-EcoRI fragment from pMON19714 and Ba HI-EcoRI digested pMON19470 (Brown et al.). This reaction constructs a plasmid in which the patatin coding sequence is fused to the secretory signal from the PRlb gene and driven by the CaMV35S promoter and an intron for monocot expression. For dicot gene expression, a similar reaction may be performed. The Notl-NotI fragment of the dicot expression vector may be inserted into a dicot transformation vector as described below and mobiUzed into a disarmed Agrobacterium host and used to transform dicots. Thus, plants which produce patatin that is secreted into the extracellular space can be made. The Notl-NotI fragment of this monocot plasmid may be inserted into a corn transformation vector (such as pMON18181 described above) to produce a corn plant which secretes patatin. It may be advantageous to direct the localization of patatin to another cellular compartment, the chloroplast. Proteins can be directed to the chloroplast by including at their N-termini a chloroplast transit peptide (CTP). One CTP that has worked to locaUze heterologous proteins to the chloroplast is that derived from the RUBISCO small subunit gene of Arabidopsis, denoted atslA. A variant of this transit peptide that encodes the transit peptide, 23 amino acids of mature RUBISCO sequence, plus a reiteration of the transit peptide cleavage site has been constructed for the successful chloroplast localization of the B.t.k. protein. pMON19643, described in Brown et al., contains the Arabidopsis atslA transit peptide fused to the GOX gene and may be used as the base for constructing vectors for the chloroplast localization of the patatin. A complete EcoRI and partial Ncol digestion of pMON19643 is performed and the large (4.0 kb) fragment is isolated. In a Ugation reaction, the NcoI-EcoRI fragment from pMON19714 is mixed with the large fragment of pMON19643. This reaction constructs a plasmid in which the patatin coding sequence is fused to the Arabidopsis transit peptide with 23 amino acids of mature RUBISCO, and driven by the CaMV E35S promoter. Alternatively, a similar plasmid may be constructed to replace the promoter with the FMV35S promoter. Such plasmids are mobiUzed into disarmed Agrobacterium hosts and used to transform dicots. Alternatively, the Notl- NotI fragment is cloned into a corn transformation vector, as described above. Thus, plants can be generated which produce patatin that is locaUzed to the chloroplast. Plant Transformation and Expression A chimeric plant gene containing a structural coding sequence of the present invention can be inserted into the genome of a plant by any suitable method. Suitable plant transformation vectors include those derived from a Ti plasmid of Agrobacterium tumefaciens, as well as those disclosed, e.g., by Herrera-Estrella (1983), Bevan (1983), Klee (1985) and EPO pubUcation 0 120 516 (Schilperoort et al.). In addition to plant transformation vectors derived from the Ti or root-inducing (Ri) plasmids of Agrobacterium, alternative methods can be used to insert the DNA con¬ structs of this invention into plant cells. Such methods may involve, for example, the use of liposomes, electroporation, chemicals that increase free DNA uptake, free DNA delivery via microprojectile bombardment, and transformation using viruses or pollen. Transient Expression of Patatin in Tobacco Cells A particularly useful plasmid cassette vector for transformation of dicotyledonous plants is pMON11794. The expression cassette pMON 11794 consists of the CaMV E35S promoter, the petunia Hsp70 5' untrans- lated leader, and the 3' end including polyadenylation signals from the NOS gene. pMON11794 includes Ncol and EcoRI sites for insertion of coding sequences and Notl-NotI sites flanking the plant gene expression cassette. PatA+ (SEQ ID NO:ll), PatB+ (SEQ ID NO:16), PatC+ (SEQ ID NO:17), and PatG+ (SEQ ID NO:22), were each inserted into pMON11794 to produce pMON19745, pMON19742, pMON19743, and pMON19744 respectively. Each of these vectors was electroporated into tobacco protoplasts. Expression of patatin by the transformed tobacco cells was confirmed by Western blot analysis. Stable Transformation of Dicots Stable transformation of a dicot with a patatin gene has been repor¬ ted by Rosahl et al. Tobacco was transformed with a patatin gene under the control of a leaf and stem specific promoter. Patatin was expressed. The Notl-NotI fragment from pMON19745 was inserted into pMON17227, a Ti plasmid vector disclosed and described by Barry et al. in WO 92/04449, incorporated herein by reference, to produce pMON22566. This vector contains the glyphosate resistance gene described by Barry for selection of transformed plants. Similarly SEQ ID NO:16, SEQ ID NO:17, and SEQ ID NO:22 were used to make vectors pMON22563, 22564, and 22565, respectively. These vectors were introduced into disarmed Agrobacterium ABI and used to transform tomato explants in tissue culture. After selection for glyphosate resistance and plant regeneration, whole plants expressing the patatin gene were recovered. Expression of the patatin gene was confirmed by Western blot analysis, and preUminary results indicate expression at levels between 0.1 and 0.5% of total protein. Bioassays with insect larvae are underway. Transient Expression of Patatin in Corn Cells The 1 kb NcoI-EcoRI fragment of pMON19729, described above, was inserted into pMON19433, which is described in WO 93/19189 and co- pending U.S. patent appUcation Serial Number 07/855,857, filed March 19, 1992 (Brown et al.), which is hereby incorporated by reference. The resulting plasmid, pMON19731, was digested with NotI and the resulting fragment inserted into pMON10081, also described by Brown et al., to give pMON19740. This plasmid was electroporated into corn leaf protoplasts as described by Sheen, 1991. Expression of patatin by the transformed corn protoplasts was confirmed by Western blot analysis. To obtain cytoplasmic expression of patatin, the NcoI-EcoRI fragment of pMON19714 was inserted into pMON19433 to produce pMON19730. The NotI fragment of pMON19730 was inserted into pMON10081 and the resulting plasmid, pMON19739, was electroporated into corn leaf protoplasts, which produced patatin, as confirmed by Western blot analysis. Patl7, with and without targeting signals, was also expressed in corn protoplasts. pMON19761 was constructed by inserting the 1.1 Kb NcoI-EcoRI fragment (SEQ ID NO:30) encoding the protein Patl7+ (the mature Patl7 protein and its own signal sequence for vacuolar targeting) into pMON19648 . Thus, pMON19761 contains the CaMV E35S promoter, the Hsp 70 intron, the Patl7+ gene, and the NOS terminator for expression in corn cells. To obtain a vector for cytoplasmic expression, the Patl7+ sequence in pMON19761 was replaced by a NcoI-EcoRI fragment encoding the Patl7 m protein (SEQ ID NO:31) from pMON25213 to form the construct pMON25223. pMON25224 was made by inserting two fragments, 0.3 Kb Xbal- Ncol fragment containing the chloroplast transit peptide (CTP) from the Arabidopsis thaliana SSU la gene (Timko et al.) from pMON19643 (Brown, et al.) and the 1Kb NcoI-EcoRI fragment for Patl7 m from pMON25213, inserted into pMON19761 (Xbal-EcoRI). Thus, pMON25224 contains the CaMV E35S promoter, the Hsp 70 intron, CTP/Patl7 m coding sequence, and the NOS terminator. For extraceUular targeting, the 5' end of the endoproteinase B cDNA (Koehler and Ho) encoding the extracellular signal peptide of the secreted protein was joined to the gene for Patl7 m from pMON25213. A Bglll- EcoRI fragment containing the chimeric gene was made by a splicing overlap extension technique (Horton et al.) and inserted into pMON19761 (BamHI-EcoRI) to make pMON25225. AH of these constructs were electroporated into corn leaf protoplasts and the expression of Patl7 m was confirmed by Western blot analysis. Stable Transformation of Corn with an Patatin Gene The corn transformation vector, pMON18181 was constructed from pMON19653 and pMON19643 (Brown et al.). This construct contains a cassette of the CaMV E35S promoter, the Hsp70 intron, the CP4 glyphosate selection marker, and the NOS terminator; a cassette of the CaMV E35S promoter, the Hsp70 intron, the GOX glyphosate selection marker, and the NOS terminator; and a single NotI site for insertion of a gene expression cassette containing a patatin gene. SEQ ID NO: 11 and SEQ ID NO:30 were each inserted as Notl-NotI fragments into pMONl8181 to produce pMON19746 and pMON19764, respectively. These vectors have been inserted by bombardment of embryogenic tissue culture cells using a biolistic particle gun as described by Brown et al. Transformed cells were selected for glyphosate resistance and whole plants are being regenerated. Insect-resistant plants will be confirmed to be expressing the gene at 0.1-0.5% of total protein by Western blot analysis, esterase activity assay, and/or insect resistance assay. Synthetic Genes for Improved Monocot Expression Modification of coding sequences has been demonstrated to improve expression of other insecticidal protein genes such as the delta endotoxin sequences from Bacillus thuringiensis (Fischhoff and Perlak; WO 93/07278, Ciba-Geigy). A modified coding sequence was thus designed to improve patatin expression in plants, especiaUy corn. The modified Patl7+ sequence is shown in SEQ ID NO:33. A DNA fragment containing SEQ ID NO:33 will be synthesized and inserted into a corn expression cassette vector such as pMON19470 (Brown et al.). The corn expression cassette is then inserted into pMON18181 or other corn plant transformation vector containing a selectable marker gene for corn transformation and whole corn plants expressing Patl7+ will be obtained. From the foregoing, it will be seen that this invention is one well adapted to attain all the ends and objects hereinabove set forth together with advantages which are obvious and which are inherent to the invention. It will be understood that certain features and subcombinations are of utiUty and may be employed without reference to other features and subcombinations. This is contemplated by and is within the scope of the claims. Since many possible embodiments may be made of the invention without departing from the scope thereof, it is to be understood that all matter herein set forth is to be interpreted as illustrative and not in a Umiting sense. AH publications and patents mentioned in this specification are herein incorporated by reference as if each individual publication or patent was specifically and individually stated to be incorporated by reference. REFERENCES Andrews, et al. Biochem. J. 252: 199-206, 1988. Bagdasarian et al., Gene. 16: 237-47, 1981. Barry et al. WO 92/04449. Bevan, M. et al., Nature. 304:184, 1983. D. Boulter, A. M. R. Gatehouse and V. Hilder, Biotech Adv. 7: 489, 1989. Broadway and Duffey, J. Insect Phvsiol. 23: 827, 1986. Brown et al. WO 93/19189 and co-pending U.S. patent application Serial Number 07/855,857, filed March 19, 1992. ComeUssen, B.J.C., et al. EMBO Journal. 5: 37-40, 1986. Czapla and Lang, J. Econ. Entomol. 83: 2480, 1990. Fischhoff, D.A. and Perlak, F.J. European Pat. Appl. No. 0 385 962, 1990. Fischhoff et al., Bio/Technol. 5: 807 1987. Gaillaird, T. Biochem. J. 121: 379-390, 1971. Ganal et al., Mol. Gen. Genetics. 225: 501-509, 1991. Gatehouse et al., J. Sci. Agric. 37: 727, 1986. 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SEQUENCE LISTING (1) GENERAL INFORMATION: (i) APPLICANT: (A) NAME: Monsanto Company (B) STREET: 800 North Lindbergh Boulevard (C) CITY: St. Louis (D) STATE: Missouri (E) COUNTRY: United States of America (F) POSTAL CODE (ZIP): 63167 (G) TELEPHONE: (314)694-3131 (H) TELEFAX: (314)694-5435 (ii) TITLE OF INVENTION: Method of Controlling Insects (iii) NUMBER OF SEQUENCES: 33 (iv) COMPUTER READABLE FORM: (A) MEDIUM TYPE: Floppy disk (B) COMPUTER: IBM PC compatible (C) OPERATING SYSTEM: PC-DOS/MS-DOS (D) SOFTWARE: Patentin Release #1.0, Version #1.25 (EPO) (vi) PRIOR APPLICATION DATA: (A) APPLICATION NUMBER: US 08/031146 (B) FILING DATE: 12-MAR-1993 (2) INFORMATION FOR SEQ ID Nθ:l: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (xi) SEQUENCE DESCRIPTION: SEQ ID Nθ:l: Lys Leu Glu Glu Met Val Thr Val Leu Ser He Asp Gly Gly Gly 1 5 10 15 (2) INFORMATION FOR SEQ ID NO:2: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (xi) SEQUENCE DESCRIPTION: SEQ ID NO:2: Xaa Leu Gly Glu Met Val Thr Val Leu Ser He Asp Gly Gly Gly 1 5 10 15 (2) INFORMATION FOR SEQ ID NO:3: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (xi) SEQUENCE DESCRIPTION: SEQ ID NO:3: Thr Leu Gly Glu Met Val Thr Val Leu Ser He Asp Gly Gly Gly 1 5 10 15 (2) INFORMATION FOR SEQ ID NO:4: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (xi) SEQUENCE DESCRIPTION: SEQ ID NO:4: Thr Leu Gly Glu Met Val Thr Val Leu Ser He Asp Gly Gly Gly 1 5 10 15 (2) INFORMATION FOR SEQ ID NO:5: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (Xi) SEQUENCE DESCRIPTION: SEQ ID NO:5: Lys Leu Xaa Glu Met Val Thr Val Leu Ser He Asp Gly Gly Gly 1 5 10 15 (2) INFORMATION FOR SEQ ID NO:6: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 8 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (xi) SEQUENCE DESCRIPTION: SEQ ID NO:6: Xaa Xaa Glu Glu Met Val Thr Val 1 5 (2) INFORMATION FOR SEQ ID NO:7: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (xi) SEQUENCE DESCRIPTION: SEQ ID NO:7: Ser Leu Asp Tyr Lys Gin Met Leu Leu Leu Ser Leu Gly Thr Gly 1 5 10 15 (2) INFORMATION FOR SEQ ID NO:8: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 8 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (xi) SEQUENCE DESCRIPTION: SEQ ID NO:8: Lys Leu Asp Tyr Lys Gin Met Leu 1 5 (2) INFORMATION FOR SEQ ID NO:9: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (xi) SEQUENCE DESCRIPTION: SEQ ID NO:9: Ser Leu Xaa Tyr Lys Gin Met Leu Leu Leu Ser Leu Gly Thr Gly 1 5 10 15 (2) INFORMATION FOR SEQ ID NO:10: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: peptide (xi) SEQUENCE DESCRIPTION: SEQ ID NO:10: Ser Leu Asn Tyr Lys Gin Met Leu Leu Leu Ser Leu Gly Thr Gly 1 5 10 15 (2) INFORMATION FOR SEQ ID NO:11: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1171 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:11: CCATGGCAAC TACTAAATCT TTTTTAATTT TATTTTTTAT GA ATTAGCA ACTACTAGTT 60 CAACATGTGC TAAGTTGGAA GAAATGGTGA CTGTTCTTAG TATTGATGGA GGTGGAATTA 120 AGGGAATCAT TCCAGCTATC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG GAAGTGGACA 180 ATAATAAAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA AGTACAGGAG 240 GTTTATTGAC TGCTATGATA ACTACTCCAA ATGAAAACAA TCGACCCTTT GCTGCTGCCA 300 AAGATATTGT ACCCTTTTAC TTCGAACATG GCCCTCATAT TTTTAATTAT AGTGGTTCAA 360 TTATTGGCCC AATGTATGAT GGAAAATATC TTCTGCAAGT TCTTCAAGAA AAACTTGGAG 420 AAACTCGTGT GCATCAAGCT TTGACAGAAG TTGCCATCTC AAGCTTTGAC ATCAAAACAA 480 ATAAGCCAGT AATATTCACT AAGTCAAATT TAGCAAAGTC TCCAGAATTG GATGCTAAGA 540 TGTATGACAT ATGCTATTCC ACAGCAGCAG CTCCAATATA TTTTCCTCCA CATTACTTTA 600 TTACTCATAC TAGTAATGGT GATATATATG AGTTCAATCT TGTTGATGGT GGTGTTGCTA 660 CTGTTGGTGA TCCGGCGTTA TTATCCCTTA GCGTTGCAAC GAGACTTGCA CAAGAGGATC 720 CAGCATTTTC TTCAATTAAG TCATTGGATT ACAAGCAAAT GTTGTTGCTC TCATTAGGCA 780 CTGGCACTAA TTCAGAGTTT GATAAAACAT ATACAGCACA AGAGGCAGCT AAATGGGGTC 840 CTCTACGATG GATGTTAGCT ATACAGCAAA TGACTAATGC AGCAAGTTCT TACATGACTG 900 ATTATTACAT TTCTACTGTT TTTCAAGCTC GTCATTCACA AAACAATTAC CTCAGGGTTC 960 AAGAAAATGC ATTAACAGGC ACAACTACTG AAATGGATGA TGCGTCTGAG GCTAATATGG 1020 AATTATTAGT ACAAGTTGGT GAAACATTAT TGAAGAAACC AGTTTCCAAA GACAGTCCTG 1080 AAACCTATGA GGAAGCTCTA AAGAGGTTTG CAAAATTGCT CTCTGATAGG AAGAAACTCC 1140 GAGCAAACAA AGCTTCTTAT TGATAGAATT C 1171 (2) INFORMATION FOR SEQ ID NO:12: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 37 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (synthetic) (xi) SEQUENCE DESCRIPTION: SEQ ID NO:12: CATGTGCTCT AGAAGATCTC CACCATGGCG TTGGAAG 37 (2) INFORMATION FOR SEQ ID NO:13: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 26 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (synthetic) (xi) SEQUENCE DESCRIPTION: SEQ ID NO:13: GCTTCTTATT GATAGAATTC AAGGTC 26 (2) INFORMATION FOR SEQ ID NO:14: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1105 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:14: CCATGGCGTT GGAAGAAATG GTGACTGTTC TTAGTATTGA TGGAGGTGGA ATTAAGGGAA 60 TCATTCCAGC TATCATTCTC GAATTTCTTG AAGGACAACT TCAGGAAGTG GACAATAATA 120 AAGATGCAAG ACTTGCAGAT TACTTTGATG TAATTGGAGG AACAAGTACA GGAGGTTTAT 180 TGACTGCTAT GATAACTACT CCAAATGAAA ACAATCGACC CTTTGCTGCT GCCAAAGATA 240 TTGTACCCTT TTACTTCGAA CATGGCCCTC ATATTTTTAA TTATAGTGGT TCAATTATTG 300 GCCCAATGTA TGATGGAAAA TATCTTCTGC AAGTTCTTCA AGAAAAACTT GGAGAAACTC 360 GTGTGCATCA AGCTTTGACA GAAGTTGCCA TCTCAAGCTT TGACATCAAA ACAAATAAGC 420 CAGTAATATT CACTAAGTCA AATTTAGCAA AGTCTCCAGA ATTGGATGCT AAGATGTATG 480 ACATATGCTA TTCCACAGCA GCAGCTCCAA TATATTTTCC TCCACATTAC TTTATTACTC 540 ATACTAGTAA TGGTGATATA TATGAGTTCA ATCTTGTTGA TGGTGGTGTT GCTACTGTTG 600 GTGATCCGGC GTTATTATCC CTTAGCGTTG CAACGAGACT TGCACAAGAG GATCCAGCAT 660 TTTCTTCAAT TAAGTCATTG GATTACAAGC AAATGTTGTT GCTCTCATTA GGCACTGGCA 720 CTAATTCAGA GTTTGATAAA ACATATACAG CACAAGAGGC AGCTAAATGG GGTCCTCTAC 780 GATGGATGTT AGCTATACAG CAAATGACTA ATGCAGCAAG TTCTTACATG ACTGATTATT 840 ACATTTCTAC TGTTTTTCAA GCTCGTCATT CACAAAACAA TTACCTCAGG GTTCAAGAAA 900 ATGCATTAAC AGGCACAACT ACTGAAATGG ATGATGCGTC TGAGGCTAAT ATGGAATTAT 960 TAGTACAAGT TGGTGAAACA TTATTGAAGA AACCAGTTTC CAAAGACAGT CCTGAAACCT 1020 ATGAGGAAGC TCTAAAGAGG TTTGCAAAAT TGCTCTCTGA TAGGAAGAAA CTCCGAGCAA 1080 ACAAAGCTTC TTATTGATAG AATTC 1105 (2) INFORMATION FOR SEQ ID NO:15: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1106 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:15: CCATGGCGTT GGAAGAAATG GTGACTGTTC TTAGTATTGA TGGAGGTGGA ATTAAGGGAA 60 TCATTCCAGC TACCATTCTC GAATTTCTTG AAGGACAACT TCAGGAAGTG GACAATAATA 120 AAGATGCAAG ACTTGCAGAT TACTTTGATG TAATTGGAGG AACAAGTACA GGAGGTTTAT 180 TGACTGCTAT GATAACTACT CCAAATGAAA ACAATCGACC CTTTGCTGCT GCCAAAGATA 240 TTGTACCCTT TTACTTCGAA CATGGCCCTC ATATTTTTAA TTATAGTGGT TCAATTATTG 300 GCCCAATGTA TGATGGAAAA TATCTTCTGC AAGTTCTTCA AGAAAAACTT GGAGAAACTC 360 GTGTGCATCA AGCTTTGACA GAAGTTGCCA TCTCAAGCTT TGACATCAAA ACAAATAAGC 420 CAGTAATATT CACTAAGTCA AATTTAGCAA AGTCTCCAGA ATTGGATGCT AAGATGTATG 480 ACATATGCTA TTCCACAGCA GCAGCTCCAA TATATTTTCC TCCACATTAC TTTATTACTC 540 ATACTAGTAA TGGTGATATA TATGAGTTCA ATCTTGTTGA TGGTGGTGTT GCTACTGTTG 600 GTGATCCGGC GTTATTATCC CTTAGCGTTG CAACGAGACT TGCACAAGAG GATCCAGCAT 660 TTTCTTCAAT TAAGTCATTG GATTACAAGC AAATGTTGTT GCTCTCATTA GGCACTGGCA 720 CTAATTCAGA GTTTGATAAA ACATATACAG CACAAGAGGC AGCTAAATGG GGTCCTCATC 780 GATGGATGTT AGCTATACAG CAAATGACTA ATGCAGCAAG TTCTTACATG ACTGATTATT 840 ACATTTCTAC TGTTTTTCAA GCTGGTCATT CACAAAACAA TTACCTCAGG GTTCAAGAAA 900 ATGCATTAAC AGGCACAACT ACTGAAATGG ATGATGCGTC TGAGGCTAAT ATGGAATTAT 960 TAGTACAAGT TGGTGAAAAA TTATTGAAGG AACCAGTTTC CAAAGACAGT CCTGAAACCT 1020 CTGAGGAAGC TCTAAAGAGG TTTGCAAAAT TGCTCTCTGA TAGAAAGAAA CTCCGAGCAA 1080 ACAAAGCTTC TTATTAATGA GAATTC 1106 (2) INFORMATION FOR SEQ ID NO:16: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1172 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:16: CCATGGCAAC TACTAAATCT GTTTTAGTTT TATTTTTTAT GATATTAGCA ACTACTAGTT 60 CAACATGTGC TACGTTGGGA GAAATGGTGA CTGTTCTTAG TATTGATGGA GGTGGAATTA 120 AGGGAATCAT TCCGGCTACC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG GAAGTGGACA 180 ATAATAAAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA AGTACAGGAG 240 GTTTATTGAC TGCTATGATA ACTACTCCAA ATGAAAACAA TCGACCCTTT GCTGCTGCCA 300 AAGATATTGT ACCTTTTTAC TTCGAACATG GCCCTCATAT TTTTAATTCT AGTGGTTCAA 360 TTTTTGGCCC AATGTATGAT GGAAAATATT TTCTGCAAGT TCTTCAAGAA AAACTTGGAG 420 AAACTCGTGT GCATCAAGCT TTGACAGAAG TTGCCATCTC AAGCTTTGAC ATCAAAACAA 480 ATAAGCCAGT AATATTCACT AAGTCAAATT TAGCAAAGTC TCCAGAATTG GATGCTAAGA 540 TGAATGACAT ATGCTATTCC ACAGCAGCAG CTCCAACATA TTTTCCTCCA CATTACTTTG 600 TTACTCATAC TAGTAATGGA GATAAATATG AGTTCAATCT TGTTGATGGT GCTGTTGCTA 660 CTGTTGGTGA TCCGGCGTTA TTATCCCTTA GCGTTCGAAC GAAACTTGCA CAAGTGGATC 720 CAAAATTTGC TTCAATTAAG TCATTGAATT ACAACGAAAT GTTGTTGCTC TCATTAGGCA 780 CTGGCACTAA TTCAGAGTTT GATAAAACAT ATACAGCAGA AGAGGCAGCT AAATGGGGTC 840 CTCTACGATG GATATTAGCT ATACAGCAAA TGACTAATGC AGCAAGTTCT TACATGACTG 900 ATTATTACCT TTCTACTGTT TTTCAAGCTC GTCATTCACA AAACAATTAC CTCAGGGTTC 960 AAGAAAATGC ATTAACAGGC ACAACTACTG AAATGGATGA TGCGTCTGAG GCTAATATGG 1020 AATTATTAGT ACAAGTTGGT GAAAAATTAT TGAAGAAACC AGTTTCCAAA GACAGTCCTG 1080 AAACCTATGA GGAAGCTCTA AAGAGGTTTG CAAAATTGCT CTCTGATAGG AAGAAACTCC 1140 GAGCAAACAA AGCTTCTTAT TAATGAGAAT TC 1172 (2) INFORMATION FOR SEQ ID NO:17: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1175 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:17: CCATGGCAAC TACTAAATCT TTTTTAATTT TAATTGTTAT GATATTAGCA ACTACTAGTT 60 CAACATTTGC TTCGTTGGAA GAAATGGTGA CTGTTCTTAG TATTGATGGA GGTGGAATTA 120 AGGGAATCAT TCCGGGTACC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG AAAATGGACA 180 ATAATGCAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA AGTACAGGAG 240 GTTTATTGAC TTCTATGATA ACTACTCCAA ATGAAAACAA TCGACCCTTT GCTGCTGCCA 300 ATGAAATTGT ACCTTTTTAC TTCGAACATG GCCCTCATAT TTTTAATTCT AGGTACTGGC 360 CAATTTTTTG GCCAAAATAT GATGGAAAAT ATCTTATGCA AGTTCTTCAA GAAAACCTTG 420 GAGAAACTCG TGTGCATCAA GCTTTGACTG AAGTTGCCAT CTCAAGCTTT GACATCAAAA 480 CAAATAAGCC AGTAATATTC ACCAAGTCAA ATTTAGCAAA GTCTCCAGAA TTGGATGCTA 540 AGATGTATGA CATATGTTAT TCCACAGCAG CAGCTCCAAC ATATTTTCCT CCACATTACT 600 TTACTACTAA TACTATTAAT GGAGATAAAT ATGAGTTCAA TCTTGTTGAT GGTGCTGTTG 660 CTACTGTTGC TGATCCGGCG TTATTATCCA TTAGCGTTGC AACGAGACTT GCAGAAAAGG 720 ATCCAGCATT TGCTTCAATT AGGTCATTGA ATTACAAAAA AATGTTGTTG CTCTCATTAG 780 GCACTGGCAC TACTTCAGAG TTTGATAAAA CATATACAGC AGAAGAGACA GCTAAATGGG 840 GTGCTATACA ATGGATGTTG GTTATACAGC GAATGACTGA TGCAGCAAGT TCTTACATGA 900 CTGATTATTA CCTTTCTACT GTTTTTCAAG CTCAAAATTC ACAAAAGAAT TACCTCAGGG 960 TTCAAGAAAA TGCGTTAACA GGCACAACTA CTGAAATGGA TGATGCTTCT GAGGCTAATA 1020 TGGAATCATT AGTACAAGTT GGTGAAAATT TATTGAAGAA ACCAGTTCCC AAAGACAATC 1080 CTGAAACCTA TGAGGAAGCT CTAAAGAGGT TTGCAAAATT GCTTTCTGAT AGGAAGAAAC 1140 TTCGAGCAAA CAAAGCTTCT TATTAATGAG AATTC 1175 (2) INFORMATION FOR SEQ ID NO:18: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1106 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:18: CCATGGCGTT GGAAGAAATG GTGACTGTTC TTAGTATTGA TGGAGGTGGA ATTAAGGGAA 60 TCATTCCGGC TACCATTCTC GAATTTCTTG AAGGACAACT TCAGGAAGTG GACAATAATA 120 AAGATGCAAG ACTTGCAGAT TACTTTGATG TAATTGGAGG AACAAGTACA GGAGGTTTAT 180 TGACTGCTAT GATAACTACT CCAAATGAAA ACAATCGACC CTTTGCTGCT GCCAAAGATA 240 TTGTACCTTT TTACTTCGAA CATGGCCCTC ATATTTTTAA TTCTAGTGGT TCAATTTTTG 300 GCCCAATGTA TGATGGAAAA TATTTTCTGC AAGTTCTTCA AGAAAAACTT GGAGAAACTC 360 GTGTGCATCA AGCTTTGACA GAAGTTGCCA TCTCAAGCTT TGACATCAAA ACAAATAAGC 420 CAGTAATATT CACTAAGTCA AATTTAGCAA AGTCTCCAGA ATTGGATGCT AAGATGTATG 480 ACATATGTTA TTCCACAGCA GCAGCTCCAA CATATTTTCC TCCACATTAC TTTGTTACTC 540 ATACTAGTAA TGGAGATAAA TATGAGTTCA ATCTTGTTGA TGGTGCTGTT GCTACTGTTG 600 GTGATCCGGC GTTATTATCC CTTAGCGTTG CAACGAAACT TGCACAAGTG GATCCAAAAT 660 TTGCTTCAAT TAAGTCATTG AATTACAAGC AAATGTTGTT GCTCTCATTA GGCACTGGCA 720 CTAATTCAGA GTTTGATAAA ACATATACAG CAGAAGAGGC AGCTAAATGG GGTCCTCTAC 780 GATGGATATT AGCTATACAG CAAATGACTA ATGCAGCAAG TTCTTACATG ACTGATTATT 840 ACCTTTCTAC TGTTTTTCAA GCTCGTCATT CACAAAACAA TTACCTCAGG GTTCAAGAAA 900 ATGCATTAAC AGGCATAACT ACTGAAATGG ATGATGCGTC TGAGGCTAAT ATGGAATTAT 960 TAGTACAAGT TGGTGAAAAA TTATTGAAGA AACCAGTTTC CAAAGACAGT CCTGAAACCT 1020 ATGAGGAAGC TCTAAAGAGG TTTGCAAAAT TGCTCTCTGA TAGGAAGAAA CTCCGAGCAA 1080 ACAAAGCTTC TTATTAATGA GAATTC 1106 (2) INFORMATION FOR SEQ ID NO:19: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1172 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:19: CCATGGCAAC TACTAAATCT TTTACAATTT TAATTTTTAT GATGTTAGCA ACTACTAGTT 60 CAACATTTGC TACATTGGGA GAAATGGTGA CTGTTCTTAG TATTGATGGA GGTGGAATTA 120 AGGGAATCAT TCCGGCTACC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG GAAGTGGACA 180 ATAATGCAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA GGTACAGGAG 240 GTTTATTGAC TGCTATGATA ACTACTCCAA ATGAAAACAA TCGACCTTTT GCTGCTGCTA 300 AAGATATTAT ACCTTTTTAC TTCGAACACG GCCCTCATAT TTTTAATTAT AGTGGTTCAA 360 TTTTAGGCCC AATGTATGAT GGAAAATATC TTCTGCAAGT TCTTCAAGAA AAACTTGGAG 420 AAACTCGTGT GCATCAAGCT TTGACAGAAG TTGCCATCTC AAGCTTTGAC ATCAAAACAA 480 ATAAGCCAGT AATATTCACT AAGTCAAATT TAGCAAAGTC TCCAGAATTG GATGCTAAGA 540 TGTATGACAT ATGCTATTCC ACAGCAGCAG CTCCAATATA TTTTCCTCCA CATCACTTTG 600 TTACTCATAC TAGTAATGGT GCTAGATATG AGTTCAATCT TGTTGATGGT GCTGTTGCTA 660 CTGTTGGTGA TCCGGCGTTA TTATCCCTTA GCGTTGCAAC GAGACTTGCA CAAGAGGATC 720 CAGCATTTTC TTCAATTAAG TCATTGGATT ACAAGCAAAT GTTGTTGCTC TCATTAGGCA 780 CTGGCACTAA TTCAGAGTTT GATAAAACAT ATACAGCAGA AGAGGCAGCT AAATGGGGTC 840 CTCTACGATG GATGTTAGCT ATACAGCAAA TGACTAATGC AGCAAGTTCT TACATGACTG 900 ATTATTACAT TTCTACTGTT TTTCAAGCTC GTCATTCACA AAACAATTAC CTCAGGGTTC 960 AAGAAAATGC ATTAAATGGC ACAACTACTG AAATGGATGA TGCGTCTGAG GCTAATATGG 1020 AATTATTAGT ACAAGTTGGT GAAACATTAT TGAAGAAACC AGTCTCCAAA GACAGTCCTG 1080 AAACCTATGA GGAAGCTCTA AAGAGATTTG CAAAATTGCT CTCTGATAGG AAGAAACTCC 1140 GAGCAAACAA AGCTTCTTAT TAATGAGAAT TC 1172 (2) INFORMATION FOR SEQ ID NO:20: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1106 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:20: CCATGGCGTT GGAAGAAATG GTGACTGTTC TTAGTATTGA TGGAGGTGGA ATTAAGGGAA 60 TCATTCCGGC TACCATTCTC GAATTTCTTG AAGGACAACT TCAGGAAGTG GACAATAATG 120 CAGATGCAAG ACTTGCAGAT TACTTTGATG TAATTGGAGG AACAGGTACA GGAGGTTTAT 180 TGACTGCTAT GATAACTACT CCAAATGAAA ACAATCGACC TTTTGCTGCT GCTAAAGATA J 240 TTATACCTTT TTACTTCGAA CACGGCCCTC ATATTTTTAA TTATAGTGGT TCAATTTTAG 300 GCCCAATGTA TGATGGAAAA TATCTTCTGC AAGTTCTTCA AGAAAAACTT GGAGAAACTC 360 GTGTGCATCA AGCTTTGACA GAAGTTGCCA TCTCAAGC-- TGACATCAAA ACAAATAAGC 420 CAGTAATATT CACTAAGTCA AATTTAGCAA AGTCTCCAGA ATTGGATGCT AAGATGTATG 480 ACATATGCTA TTCCACAGCA GCAGCTCCAA TATATTTTCC TCCACATCAC TTTGTTACTC 540 ATACTAGTAA TGGTGCTAGA TATGAGTTCA ATCTTGTTGA TGGTGCTGTT GCTACTGTTG 600 GTGATCCGGC GTTATTATCC CTTAGCGTTG CAACGAGACT TGCACAAGAG GATCCAGCAT 660 TTTCTTCAAT TAAGTCATTG GATTACAAGC AAATGTTGTT GCTCTCATTA GGCACTGGCA 720 CTAATTCAGA GTTTGATAAA ACATATACAG CAGAAGAGGC AGCTAAATGG GGTCCTCTAC 780 GATGGATGTT AGCTATACAG CAAATGACTA ATGCAGCAAG TTCTTACATG ACTGATTATT 840 ACATTTCTAC TGTTTTTCAA GCTCGTCATT CACAAAACAA TTACCTCAGG GTTCAAGAAA 900 ATGCATTAAA TGGCACAACT ACTGAAATGG ATGATGCGTC TGAGGCTAAT ATGGAATTAT 960 TAGTACAAGT TGGTGAAACA TTATTGAAGA AACCAGTCTC CAAAGACAGT CCTGAAACCT 1020 ATGAGGAAGC TCTAAAGAGA TTTGCAAAAT TGCTCTCTGA TAGGAAGAAA CTCCGAGCAA 1080 ACAAAGCTTC TTATTAATGA GAATTC 1106 (2) INFORMATION FOR SEQ ID NO:21: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1109 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:21: CCATGGCGTT GGAAGAAATG GTGGCTGTTC TTAGTATTGA TGGAGGTGGA ATTAAGGGAA 60 TCATTCCGGG TACCATTCTC GAATTTCTTG AAGGACAACT TCAGAAAATG GACAATAATG 120 CAGATGCAAG ACTTGCAGAT TACTTTGATG TAATTGGAGG AACAAGTACA GGAGGTTTAT 180 TGACTGCTAT GATAACTACT CCAAATGAAA ACAATCGACC CTTTGCTGCT GCCAATGAAA 240 TTGTACCTTT TTACTTCGAA CATGGCCCTC ATATTTTTAA TTCTAGGTAC TGGCCAATTT 300 TTTGGCCAAA ATATGATGGA AAATATCTTA TGCAAGTTCT TCAAGAAAAA CTTGGAGAAA 360 CTCGTGTGCA TCAAGCTTTG ACAGAAGTTG CCATCTCAAG CTTTGACATC AAAACAAATA 420 AGCCAGTAAT ATTCACTAAG TCAAATTTGG CAAAGTCTCC AGAATTGGAT GCTAAGACGT 480 ATGACATATG TTATTCGACA GCAGCAGCTC CAACATATTT TCCTCCACAT TACTTTGCTA 540 CTAATACTAT TAATGGAGAT AAATATGAGT TCAATCTTGT TGATGGTGCT GTTGCTACTG 600 TTGCTGATCC GGCGTTATTA TCCGTTAGCG TTGCAACGAG ACGTGCACAA GAGGATCCAG 660 CATTTGCTTC AATTAGGTCA TTGAATTACA AAAAAATGTT GTTGCTCTCA TTAGGCACTG 720 GCACTACTTC AGAGTTTGAT AAAACACATA CAGCAGAAGA GACAGCTAAA TGGGGTGCTC 780 TACAATGGAT GTTGGTTATA CAGCAAATGA CTGAGGCAGC AAGTTCTTAC ATGACTGATT 840 ATTACCTTTC TACTGTTTTT CAAGATCTTC ATTCACAAAA CAATTACCTC AGGGTTCAAG 900 AAAATGCATT AACAGGCACA ACTACTAAAG CGGATGATGC TTCTGAGGCT AATATGGAAT 960 TATTAGCACA AGTTGGTGAA AATTTATTGA AGAAACCAGT TTCCAAAGAC AATCCTGAAA 1020 CCTATGAGGA AGCTCTAAAG AGGTTTGCAA AATTGCTTTC TGATAGGAAG AAACTTCGAG 1080 CAAACAAAGC TTCTTATTAA TGAGAATTC 1109 (2) INFORMATION FOR SEQ ID NO:22: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1172 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:22: CCATGGCAAC TACTAAATCT TTTTTAATTT TATTTTTTAT GATATTAGCA ACTACTAGTT 60 CAACATGTGC TAAGTTGGAA GAAATGGTTA CTGTTCTAAG TATTGATGGA GGTGGAATTA 120 AGGGAATCAT TCCAGCTATC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG GAAGTGGACA 180 ATAATAAAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA AGTACAGGAG 240 GTTTATTGAC TGCTATGATA ACTACTCCAA ATGAAAACAA TCGACCCTTT GCTGCTGCCA 300 AAGATATTGT ACCCTTTTAC TTCGAACATG GCCCTCATAT TTTTAATTAT AGTGGTTCAA 360 TTTTAGGCCC AATGTATGAT GGAAAATATC TTCTGCAAGT TCTTCAAGAA AAACTTGGAG 420 AAACTCGTGT GCATCAAGCT TTGACAGAAG TTGCCATCTC AAGCTTTGAC ATCAAAACAA 480 ATAAGCCAGT AATATTCACT AAGTCAAATT TAGCAAAGTC TCCAGAATTG GATGCTAAGA 540 TGTATGACAT ATGCTATTCC ACAGCAGCAG CTCCAATATA TTTTCCTCCA CATCACTTTG 600 TTACTCATAC TAGTAATGGT GCTAGATATG AGTTCAATCT TGTTGATGGT GCTGTTGCTA 660 CTGTTGGTGA TCCGGCGTTA TTATCCCTTA GCGTTGCAAC GAGACTTGCA CAAGAGGATC 720 CAGCATTTTC TTCAATTAAG TCATTGGATT ACAAGCAAAT GTTGTTGCTC TCATTAGGCA 780 CTGGCACTAA TTCAGAGTTT GATAAAACAT ATACAGCAGA AGAGGCAGCT AAATGGGGTC 840 CTCTACGATG GATGTTAGCT ATACAGCAAA TGACTAATGC AGCAAGTTCT TACATGACTG 900 ATTATTACAT TTCTACTGTT TTTCAAGCTC GTCATTCACA AAACAATTAC CTCAGGGTTC 960 AAGAAAATGC ATTAAATGGC ACAACTACTG AAATGGATGA TGCGTCTGAG GCTAATATGG 1020 AATTATTAGT ACAAGTTGGT GAAACATTAT TGAAGAAACC AGTTTCCAAA GACAGTCCTG 1080 AAACCTATGA GGAAGCTCTA AAGAGATTTG CAAAATTGCT CTCTGATAGG AAGAAACTCC 1140 GAGCAAACAA AGCTTCTTAT TAATGAGAAT TC 1172 (2) INFORMATION FOR SEQ ID NO:23: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1104 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:23: CCATGGTTGG AAGAAATGGT GACTGTTCTA AGTATTGATG GAGGTGGAAT TAAGGGAATC 60 ATTCCAGCTA TCATTCTCGA ATTTCTTGAA GGACAACTTC AGGAAGTGGA CAATAATAAA 120 GATGCAAGAC TTGCAGATTA CTTTGATGTA ATTGGAGGAA CAAGTACAGG AGGTTTATTG 180 ACTGCTATGA TAACTACTCC AAATGAAAAC AATCGACCCT TTGCTGCTGC CAAAGATATT 240 GTACCCTTTT ACTTCGAACA TGGCCCTCAT ATTTTTAATT ATAGTGGTTC AATTTTAGGC 300 CCAATGTATG ATGGAAAATA TCTTCTGCAA GTTCTTCAAG AAAAACTTGG AGAAACTCGT 360 GTGCATCAAG CTTTGACGGA AGTTGCCATC TCAAGCTTTG ACATCAAAAC AAATAAGCCA 420 GTAATATTCA CTAAGTCAAA TTTAGCAAAG TCTCCAGAAT TGGATGCTAA GATGTATGAC 480 ATATGCTATT CCACAGCAGC AGCTCCAATA TATTTTCCTC CACATCACTT TGTTACTCAT 540 ACTAGTAATG GTGCTAGATA TGAGTTCAAT CTTGTTGATG GTGCTGTTGC TACTGTTGGT 600 GATCCGGCGT TATTATCCCT TAGCGTTGCA ACGAGACTTG CACAAGAGGA TCCAGCATTT 660 TCTTCAATTA AGTCATTGGA TTACAAGCAA ATGTTGTTGC TCTCATTAGG CACTGGCACT 720 AATTCAGAGT TTGATAAAAC ATATACAGCA GAAGAGGCAG CTAAATGGGG TCCTCTACGA 780 TGGATGTTAG CTATACAGCA AATGACTAAT GCAGCAAGTT TTTACATGAC TGATTATTAC 840 ATTTCTACTG TTTTTCAAGC TCGTCATTCA CAAAACAATT ACCTCAGGGT TCAAGAAAAT 900 GCATTAAATG GCACAACTAC TGAAATGGAT GATGCGTCTG AGGCTAATAT GGAATTATTA 960 GTACAAGTTG GTGAAACATT ATTGAAGAAA CCAGTTTCCA GAGACAGTCC TGAAACCTAT 1020 GAGGAAGCTC TAAAGAGATT TGCAAAATTG CTCTCTGATA GGAAGAAACT CCGAGCAAAC 1080 AAAGCTTCTT ATTAATGAGA ATTC 1104 (2) INFORMATION FOR SEQ ID NO:24: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1172 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:24: CCATGGCAAC TACTAAATCT TTTTTAATTT TATTTTTTAT GATATTAGCA ACTACTAGTT 60 CAACATGTGC TAAGTTGGAA GAAATGGTTA CTGTTCTAAG TATTGATGGA GGTGGAATTA 120 AGGGAATCAT TCCAGCTATC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG GAAGTGGACA 180 ATAATAAAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA AGTACAGGAG 240 GTTTATTGAC TGCTATGATA ACTACTCCAA ATGAAAACAA TCGACCCTTT GCTGCTGCCA 300 AAGATATTGT ACCCTTTTAC TTCGAACATG GCCCTCATAT TTTTAATTAT AGTGGTTCAA 360 TTTTAGGCCC AATGTATGAT GGAAAATATC TTCTGCAAGT TCTTCAAGAA AAACTTGGAG 420 AAACTCGTGT GCATCAAGCT TTGACAGAAG TTGCCATCTC AAGCTTTGAC ATCAAAACAA 480 ATAAGCCAGT AATATTCACT AAGTCAAATT TAGCAAAGTC TCCAGAATTG GATGCTAAGA 540 TGTATGACAT ATGCTATTCC ACAGCAGCAG CTCCAATATA TTTTCCTCCA CATCACTTTG 600 TTACTCATAC TAGTAATGGT GCTAGATATG AGTTCAATCT TGTTGATGGT GCTGTTGCTA 660 CTGTTGGTGA TCCGGCGTTA TTATCCCTTA GCGTTGCAAC GAGACTTGCA CAAGAGGATC 720 CAGCATTTTC TTCAATTAAG TCATTGGATT ACAAGCAAAT GTTGTTGCTC TCATTAGGCA 780 CTGGCACTAA TTCAGAGTTT GATAAAACAT ATACAGCAGA AGAGGCAGCT AAATGGGGTC 840 CTCTACGATG GATGTTAGCT ATACAGCAAA TGACTAATGC AGCAAGTTCT TACATGACTG 900 ATTATTACAT TTCTACTGTT TTTCAAGCTC GTCATTCACA AAACAATTAC CTCAGGGTTC 960 AAGAAAATGC ATTAAATGGC ACAACTACTG AAATGGATGA TGCGTCTGAG GCTAATATGG 1020 AATTATTAGT ACAAGTTGGT GCAACATTAT TGAAGAAACC AGTCTCCAAA GACAGTCCTG 1080 AAACCTATGA GGAAGCTCTA AAGAGATTTG CAAAATTGCT CTCTGATAGG AAGAAACTCC 1140 GAGCAAACAA AGCTTCTTAT TAATGAGAAT TC 1172 (2) INFORMATION FOR SEQ ID NO:25: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1175 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:25: CCATGGCAAC TACTAAATCT TTTACAATTT TAATTTTTAT GATGTTAGCA ACTACTAGTT 60 CAACATTTGC TACATTGGGA GAAATGGTGA CTGTTCTTAG TATTGATGGA GGTGGAATTA 120 AGGGAATCAT TCCGGCTACC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG GAAGTGGACA 180 ATAATGCAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA GGTACAGGAG 240 GTTTATTGAC TGCTATGATA ACTACTCCAA ATGAAAACAA TCGACCTTTT GCTGCTGCTA 300 AAGATATTAT ACCTTTTTAC TTCGATCATG GCCCTAAGAT TTTTGAACCT AGTGGTTTTC 360 ACCTTTTTGA GCCAAAATAT GATGGAAAAT ATCTTATGCA AGTTCTTCAA GAAAAACTTG 420 GAGAAACTCG TGTGCATCAA GCTTTGACAG GAGTTGCCAT CTCAAGCTTT GACATCAAAA 480 CAAATAAGCC AGTAATATTC ACTAAGTCAA GTTTAGCAAA AACTCCAGAA TTGGATGCTA 540 AGATGTATGA CATATGTTAT TCCACAGCAG CAGCTCCAAC ATATTTTCCT CCACATTACT 600 TTGCTACTAA TACTAGTAAT GGAGATCAAT ATGACCTCAA TCTTGTTGAT GGCGATGTTG 660 CTGCTGGTGA TCCGTCGTTA TTATCCATTA GCGTTGCAAC GAGACTTGCA CAAGAGGATC 720 CAGCATTTGC TTCAATTAAG TCATTGAATT ACAAACAAAT GTTGTTGCTC TCATTAGGCA 780 CTGGCACTAA TTCAGAGTTT GCTAAAAACT ATACAGCAGA AGAGGCAGCT AAATGGGGTA 840 TTCTACAATG GGTATTCTCA CCTTTATGGG AAATGAGAAG TGCAGCAAGT TCTTACATGA 900 ATGATTATTA CCTTTCTACT GTTTTTCAAG CTCTTGATTC ACAAAACAAT TACCTCAGGG 960 TTCAAGAAAA TGCATTAACA GGCACAGCTA CTACATTTGA TGATGCTTCT CTGGCTAATA 1020 TGATATTATT AGTACAAGTT GGTGAAAACT TATTGAAGAA ATCAGTTTCC GAAGACAATC 1080 ATGAAACCTA TGAGGTAGCT CTAAAGAGGT TTGCAAAATT GCTCTCTGAT AGGAAGAAAC 1140 TCCGAGCAAA CAAAGCTTCT TATTAATGAG AATTC 1175 (2) INFORMATION FOR SEQ ID NO:26: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 33 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (synthetic) (xi) SEQUENCE DESCRIPTION: SEQ ID NO:26: GTTAGATCTC ACCATGGCAA CTACTAAATC TTT 33 (2) INFORMATION FOR SEQ ID NO:27: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 33 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (synthetic) (xi) SEQUENCE DESCRIPTION: SEQ ID NO:27: CCAGAATTCT CATTAATAAG AAGCTTTGTT TGC 33 (2) INFORMATION FOR SEQ ID NO:28: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1172 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:28: CCATGGCAAC TACTAAATCT TTTACAATTT TAATTTTTAT GATGTTAGCA ACTACTAGTT 60 CAACATTTGC TACATTGGGA GAAATGGTGA CTGTTCTTAG TATTGATGGA GGTGGAATTA 120 AGGGAATCAT TCCGGCTACC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG GAAGTGGACA 180 ATAATACAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA GGTACAGGAG 240 GTTTATTGAC TGCTATGATA ACTACTCCAA ATGAAAACAA TCGACCCTTT GCTGCTGCTA 300 AAGATATTAT ACCTTTTTAC TTCGATCATG GCCCTCAGAT TTTTGAACCT AGTGGTCTTC 360 AAATTTTTGG CCCAAAATAT GATGGAAAAT ATCTTATGCA AGTTCTTCAA GAAAAACTTG 420 GAGAAACTCG TGTGCATCAA GCTTTGACAG AAGTTGCCAT CTCAAGCTTT GACATCAAAA 480 CAAATAAGCC AGTAATATTC ACTAAGTCAA ATTTAGCAAA AACTCCAGAA TTGGATGCTA 540 AGATGTATGA CATATGTTAT TCCACAGCAG CAGCTCCAAC ATATTTTCCT CCACATTACT 600 TTGCTACTAA TACTAGTAAT GGAGATCAAT ATGACTTCAA TCTTGTTGAT GGTGATGTTG 660 CTGCTGGTGA TCCGTCGTTA TTATCCATTA GCGTTGCAAC GAGACTTGCA CAAGAGGATC 720 CAGCATTTGC TTCAATTAGG TCGTTGAATT ACAAACAAAT GTTGTTGCTC TCATTAGGCA 780 CTGGCACTAC TTCAGAGTTT TATAAAAACT ATACAGCAGA AGAGGCAGCT AAATGGGGTA 840 TTCTACAATG GCTGTTACCT TTACAGGAAA TGAGAAGTGC AGCAAGTTCT TACATGAATG 900 ATTATTACCT TTCTACTGTT TTTCAAGCTC TTGATTCACA AAACAATTAC CTCAGGGTTC 960 AAGAAAATGC ATTAACAGGC ACAGCTACTA AATTTGATGA TGCTTCTGTG GCTAATATGA 1020 TATTATTAGT ACAAGTTGGT GAAAACTTAT TGAAGAAATC AGTTTCTGAA GACAATCATG 1080 AAACCTATGA GGTAGCTCTA AAGAGGTTTG CAAAATTGCT CTCCGATAGG AAGAAACTCC 1140 GAGCAAACAA AGCTTCTTAT TAATGAGAAT TC 1172 (2) INFORMATION FOR SEQ ID NO:29: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1172 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:29: CCATGGCAAC TACTAAATCT TTTACAATTT TAATTTTTAT GATGTTAGCA ACTACTAGTT 60 CAACATTTGC TACATTGGGA GAAATGGTGA CTGTTCTTAG TATTGATGGA GGTGGAATTA 120 AGGGAATCAT TCCGGCTACC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG GAAGTGGACA 180 ATAATACAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA GGTACAGGAG 240 GTTTATTGAC TGCTATGATA ACTACTCCAA ATGAAAACAA TCGACCCTTT GCTGCTGCTA 300 AAGATATTAT ACCTTTTTAC TTCGATCATG GCCCTCAGAT TTTTGAACCT AGTGGTTCAA 360 TTTTTGATGG CCCAAAATAT GATGGAAAAC ATCTTATGCA AGTTCTTCAA GAAAAACTAG 420 GAGAAACTCG TGTGCATCAA ACTTTGACAG AAGTTGCCAT CTCAAGCTTT GACATCAAAA 480 CAAATAAGCC AGTAATATTC ACTAAGTCAA ATTTACCAAA AACTCCAGAA TTGGATGCTA 540 AGATGTATGA CATATGTTAT TCCACAGCAG CAGCTCCAAC ATATTTTCCT CCACATTACT 600 TTGCTACTAA TACTAGTAAT GGAGATCAAT ATGACTTCAA TCTTGTTGAT GGTGATGTTG 660 CTGCTGGTGA TCCGTCGTTA TTATCCATTA GCGTTGCAAC GAGACTTGCA CAAGAGGATC 720 CAGCATTTGC TTCAATTAGG TCGTTGAATT ACAAACAAAT GTTGTTGCTC TCATTAGGCA 780 CTGGCACTAC TTCAGAGTTT TATAAAAACT ATACAGCAGA AGAGGCAGCT AAATGGGGTA 840 TTCTACAATG GCTGTTACCT TTACAGGAAA TGAGAAGTGC AGCAAGTTCT TACATGAATG 900 ATTATTACCT TTCTACTGTT TTTCAAGCTC TTGATTCACA AAACAATTAC CTCAGGGTTC 960 AAGAAAATGC ATTAACAGGC ACAGCTACTA AATTTGATGA TGCTTCTGTG GCTAATATGA 1020 TATTATTAGT ACAAGTTGGT GAAAACTTAT TGAAGAAATC AGTTTCTGAA GACAATCATG 1080 AAACCTATGA GGTAGCTCTA AAGAGGTTTG CAAAATTGCT CTCCGATAGG AAGAAACTCC 1140 GAGCAAACAA AGCTTCTTAT TAATGAGAAT TC 1172 (2) INFORMATION FOR SEQ ID NO:30: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1172 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:30: CCATGGCAAC TACTAAATCT TTTTTAATTT TAATATTTAT GATATTAGCA ACTACTAGTT 60 CAACATTTGC TCAGTTGGGA GAAATGGTGA CTGTTCTTAG TATTGATGGA GGTGGAATTA 120 GAGGGATCAT TCCGGCTACC ATTCTCGAAT TTCTTGAAGG ACAACTTCAG GAAATGGACA 180 ATAATGCAGA TGCAAGACTT GCAGATTACT TTGATGTAAT TGGAGGAACA AGTACAGGAG 240 GTTTATTGAC TGCTATGATA AGTACTCCAA ATGAAAACAA TCGACCCTTT GCTGCTGCCA 300 AAGAAATTGT ACCTTTTTAC TTCGAACATG GCCCTCAGAT TTTTAATCCT AGTGGTCAAA 360 TTTTAGGCCC AAAATATGAT GGAAAATATC TTATGCAAGT TCTTCAAGAA AAACTTGGAG 420 AAACTCGTGT GCATCAAGCT TTGACAGAAG TTGTCATCTC AAGCTTTGAC ATCAAAACAA 480 ATAAGCCAGT AATATTCACT AAGTCAAATT TAGCAAACTC TCCAGAATTG GATGCTAAGA 540 TGTATGACAT AAGTTATTCC ACAGCAGCAG CTCCAACATA TTTTCCTCCG CATTACTTTG 600 TTACTAATAC TAGTAATGGA GATGAATATG AGTTCAATCT TGTTGATGGT GCTGTTGCTA 660 CTGTTGCTGA TCCGGCGTTA TTATCCATTA GCGTTGCAAC GAGACTTGCA CAAAAGGATC 720 CAGCATTTGC TTCAATTAGG TCATTGAATT ACAAAAAAAT GCTGTTGCTC TCATTAGGCA 780 CTGGCACTAC TTCAGAGTTT GATAAAACAT ATACAGCAAA AGAGGCAGCT ACCTGGACTG 840 CTGTACATTG GATGTTAGTT ATACAGAAAA TGACTGATGC AGCAAGTTCT TACATGACTG 900 ATTATTACCT TTCTACTGCT TTTCAAGCTC TTGATTCAAA AAACAATTAC CTCAGGGTTC 960 AAGAAAATGC ATTAACAGGC ACAACTACTG AAATGGATGA TGCTTCTGAG GCTAATATGG 1020 AATTATTAGT ACAAGTTGGT GAAAACTTAT TGAAGAAACC AGTTTCCGAA GACAATCCTG 1080 AAACCTATGA GGAAGCTCTA AAGAGGTTTG CAAAATTGCT CTCTGATAGG AAGAAACTCC 1140 GAGCAAACAA AGCTTCTTAT TAATGAGAAT TC 1172 (2) INFORMATION FOR SEQ ID NO:31: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1106 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:31: CCATGGCGTT GGAAGAAATG GTGACTGTTC TTAGTATTGA TGGAGGTGGA ATTAGAGGGA 60 TCATTCCGGC TACCATTCTC GAATTTCTTG AAGGACAACT TCAGGAAATG GACAATAATG 120 CAGATGCAAG ACTTGCAGAT TACTTTGATG TAATTGGAGG AACAAGTACA GGAGGTTTAT 180 TGACTGCTAT GATAAGTACT CCAAATGAAA ACAATCGACC CTTTGCTGCT GCCAAAGAAA 240 TTGTACCTTT TTACTTCGAA CATGGCCCTC AGATTTTTAA TCCTAGTGGT CAAATTTTAG 300 GCCCAAAATA TGATGGAAAA TATCTTATGC AAGTTCTTCA AGAAAAACTT GGAGAAACTC 360 GTGTGCATCA GGCTTTGACA GAAGTTGTCA TCTCAAGCTT TGACATCAAA ACAAATAAGC 420 CAGTAATATT CACTAAGTCA AATTTAGCAA ACTCTCCAGA ATTGGATGCT AAGATGTATG 480 ACATAAGTTA TTCCACAGCA GCAGCTCCAA CATATTTTCC TCCGCATTAC TTTGTTACTA 540 ATACTAGTAA TGGAGATGAA TATGAGTTCA ATCTTGTTGA TGGTGCTGTT GCTACTGTTG 600 CTGATCCGGC GTTATTATCC ATTAGCGTTG CAACGAGACT TGCACAAAAG GATCCAGCAT 660 TTGCTTCAAT TAGGTCATTG AATTACAAAA AAATGCTGTT GCTCTCATTA GGCACTGGCA 720 CTACTTCAGA GTTTGATAAA ACATATACAG CAAAAGAGGC AGCTACCTGG ACTGCTGTAC 780 ATTGGATGTT AGTTATACAG AAAATGACTG ATGCAGCAAG TTCTTACATG ACTGATTATT 840 ACCTTTCTAC TGCTTTTCAA GCTCTTGATT CAAAAAACAA TTACCTCAGG GTTCAAGAAA 900 ATGCATTAAC AGGCACAACT ACTGAAATGG ATGATGCTTC TGAGGCTAAT ATGGAATTAT 960 TAGTACAAGT TGGTGAAAAC TTATTGAAGA AACCAGTTTC CGAAGACAAT CCTGAAACCT 1020 ATGAGGAAGC TCTAAAGAGG TTTGCAAAAT TGCTCTCTGA TAGGAAGAAA CTCCGAGCAA 1080 ACAAAGCTTC TTATTAATGA GAATTC 1106 (2) INFORMATION FOR SEQ ID NO:32: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 45 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (synthetic) (xi) SEQUENCE DESCRIPTION: SEQ ID NO:32: CCATCTAGAA GATCTCCACC ATGGCGTTGG GAGAAATGGT GACTG 45 (2) INFORMATION FOR SEQ ID NO:33: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1164 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:33: ATGGCCACCA CCAAGAGCTT CCTCATCCTG ATCTTCATGA TCCTGGCCAC CACCAGCAGC 60 ACCTTCGCCC AGCTCGGCGA GATGGTGACC GTGCTCTCCA TCGACGGCGG TGGCATCAGG 120 GGCATCATCC CGGCCACCAT CCTGGAGTTC CTGGAGGGCC AACTCCAGGA GATGGACAAC 180 AACGCCGACG CCCGCCTGGC CGACTACTTC GACGTGATCG GTGGCACCAG CACCGGCGGT 240 CTCCTGACCG CCATGATCTC CACTCCGAAC GAGAACAACC GCCCCTTCGC CGCTGCGAAG 300 GAGATCGTCC CGTTCTACTT CGAACACGGC CCTCAGATTT TCAACCCCTC GGGTCAAATC 360 CTGGGCCCCA AGTACGACGG CAAGTACCTT ATGCAAGTGC TTCAGGAGAA GCTGGGCGAG 420 ACTAGGGTGC ACCAGGCGCT GACCGAGGTC GTCATCTCCA GCTTCGACAT CAAGACCAAC 480 AAGCCAGTCA TCTTCACCAA GTCCAACCTG GCCAACAGCC CGGAGCTGGA CGCTAAGATG 540 TACGACATCT CCTACTCCAC TGCTGCCGCT CCCACGTACT TCCCTCCGCA CTACTTCGTC 600 ACCAACACCA GCAACGGCGA CGAGTACGAG TTCAACCTTG TTGACGGTGC GGTGGCTACG 660 GTGGCGGACC CGGCGCTCCT GTCCATCAGC GTCGCCACGC GCCTGGCCCA GAAGGATCCA 720 GCCTTCGCTA GCATTAGGAG CCTCAACTAC AAGAAGATGC TGCTGCTCAG CCTGGGCACT 780 GGCACGACCT CCGAGTTCGA CAAGACCTAC ACTGCCAAGG AGGCCGCTAC CTGGACCGCC 840 GTCCATTGGA TGCTGGTCAT CCAGAAGATG ACGGACGCCG CTTCCAGCTA CATGACCGAC 900 TACTACCTCT CCACTGCGTT CCAGGCGCTT GACTCCAAGA ACAACTACCT CCGTGTTCAG 960 GAGAATGCCC TCACTGGCAC CACGACCGAG ATGGACGATG CCTCCGAGGC CAACATGGAG 1020 CTGCTCGTCC AGGTGGGTGA GAACCTCCTG AAGAAGCCCG TCTCCGAAGA CAATCCCGAG 1080 ACCTATGAGG AAGCGCTCAA GCGCTTTGCC AAGCTGCTCT CTGATAGGAA GAAACTCCGC 1140 GCTAACAAGG CCAGCTACTA ATGA 1164

Claims: WHAT IS CLAIMED IS: 1. A method of controlling plant-eating insect infestation of a plant comprising providing an effective amount of an insecticidal patatin for ingestion by the insect. 2. The method of Claim 1 wherein said patatin is provided by plant- colonizing microorganisms which produce said patatin after application to the plant. 3. The method of Claim 1 wherein said patatin is provided by expression of a gene for a patatin incorporated in said plant by previous genetic transformation of a parent cell of the plant. 4. The method of Claim 3 wherein said plant is cotton, corn, tomato, or potato. 5. A method of producing genetically transformed, insect-resistant plants which express an insecticidally effective amount of a patatin, comprising the steps of: a) inserting into the genome of a plant cell a recombinant, double- stranded DNA molecule comprising (i) a promoter which functions in plant cells to cause the production of an RNA sequence; (ii) a structural coding sequence that encodes for a patatin; (ϋi) a 3' non-translated region which functions in said plant cells to cause the addition of polyadenylate nucleotides to the 3' end of the RNA sequence, wherein said promoter is heterologous with respect to said structural coding sequence and wherein said promoter is operatively linked with said structural coding sequence, which is in turn operably linked with said non-translated region; b) obtaining transformed plant cells; and c) regenerating from the transformed plant cells genetically transformed plants with express an insecticidally effective amount of patatin; wherein said promoter is heterologous with respect to the structural coding sequence and wherein said plants are selected from cotton, corn, tomato, and potato. 6. The method of Claim 5 wherein said structural coding sequence comprises SEQ ID NO: 30 or SEQ ID NO:31. 7. The method of Claim 5 wherein said plant is corn and said structural coding sequence is synthesized for enhanced expression in monocots. 8. The method of Claim 7 wherein said structural coding sequence comprises SEQ ID NO:32. 9. A plant produced by the method of Claim 5. 10. The plant of Claim 9 wherein one or more genes expressing B.t. endotoxins are included in the genome. 11. A seed or seed piece produced by a plant of Claim 9.

Inventors: BROWN SHERRI MARIE, GREENPLATE JOHN THOMAS, ISAAC BARBARA GUENTHER, JENNINGS MICHAEL GIRARD, LEVINE ELAINE BEATRICE, PURCELL JOHN PATRICK, BROWN, SHERRI, MARIE, GREENPLATE, JOHN, THOMAS, ISAAC, BARBARA, GUENTHER, JENNINGS, MICHAEL, GIRARD, LEVINE, ELAINE, BEATRICE, PURCELL, JOHN, PATRICK
Applicants: BROWN SHERRI MARIE, GREENPLATE JOHN THOMAS, ISAAC BARBARA GUENTHER, JENNINGS MICHAEL GIRARD, LEVINE ELAINE BEATRICE, MONSANTO CO, PURCELL JOHN PATRICK, BROWN, SHERRI, MARIE, GREENPLATE, JOHN, THOMAS, ISAAC, BARBARA, GUENTHER, JENNINGS, MICHAEL, GIRARD, LEVINE, ELAINE, BEATRICE, MONSANTO COMPANY, PURCELL, JOHN, PATRICK
Application year: 1994
Main classification: C12N15
IPC codes: A01H1, A01H5, A01N65, A01P7, C07K14, C12N15, C12P21, C12R1